Can animals have chloroplasts inside their vesicles 20

Humans are heterotrophs.

Plants are autotrophic.

So, plants have chlorophyll that people can't.

Chloroplasts are organs in algae and plant bodies that contain chlorophyll for photosynthesis. There are no chloroplasts inside animal cells.

Paramecium has the ability to perform photoautotrophic animals that have this function in the biological kingdom very few.

Chloroplasts are unique to plants and necessary for photosynthesis.

No, chloroplasts are used to photosynthesize plants, animals do not.

If an animal wants to have chloroplasts, don't eat, do animals not eat? No! So the animals didn't!

Some are just lower single-celled animals, like paramecium.

Animal cells have vacuoles, but vacuoles are relatively small and distributed in the cell fluid, which is not obvious. Animal cells mainly include cell membrane, cytoplasm, nucleus, lysosomes, organelles, and no cell wall. Animal cells are generally cultured using liquid media.

The following article continues to introduce whether animal cells have vacuoles, and readers who are interested in the structure of animal cells can continue to read and understand.

1. Animal cells refer to the three-dimensional structure of animal cells, which constitute the cells of the animal body, and these cells constitute various organs of the animal, and then carry out life activities.

2. The function of animal cells is: the cell membrane controls the entry and exit of the cell and the conversion of substances in the cytoplasm, the organelle is the main place of life activities, and the nucleus controls the life activities of the cell.

3. The difference between animal cells and plant cells: plant cells have cell walls, and the volume of animal cells is smaller than that of plant cells.

4. The organelles of animal cells are: centrosome, endoplasmic reticulum, Golgi apparatus, ribosomes, lysosomes, and mitochondria.

All in all, the above is about the specifics of do animal cells have vacuoles, Chunna animal cells have vacuoles, but it is not obvious, animal cells do not have chloroplasts, cannot carry out photosynthesis, cannot use carbon dioxide, water to make organic matter, and release oxygen.

No! The three-dimensional structure of animal cells is called animal cells, and plant cells and animal cells are roughly the same, with a nucleus, cytoplasm, and cell membrane. But there is also a difference, that is, plant cells have a thick and hard cell wall outside the cell membrane, while animal cells do not have a cell wall.

Leaf zopholim is the most important and ubiquitous plastid in plant cells, and it is the organelle that carries out photosynthesis. Chloroplasts use their chlorophyll to convert light energy into chemical energy and CO2 and water into sugar. Chloroplasts are the world's lowest-cost biofactories that create the most material wealth.

It can be said that the energy required for almost all life activities is solar energy (light energy).

Green plants are the main energy converters because they contain chloroplasts, which are energy-converting organelles, which use light energy to assimilate carbon dioxide and water, synthesize energy-storing organic matter, and produce oxygen. Therefore, the photosynthesis of green plants is the fundamental source of the survival, reproduction and development of organisms on the earth.

Chloroplasts may have originated from ancient cyanobacteria because of the chlorophyll found in cyanobacteria. Some ancient eukaryotes survived by devouring other organisms, and some of the cyanobacteria they swallowed were not digested and instead relied on the domestic waste of the devourers to make nutrients.

The chloroplasts of higher plants are found in the cytoplasmic matrix. Chloroplasts are generally flat, fast-flowing, ellipsoidal or spherical in shape, and their morphology and distribution can be observed with a high-powered optical microscope.

Question analysis: Not every plant cell contains mitochondria and chloroplasts, chloroplasts are only found in green plant cells that see light, because the formation of chlorophyll in chloroplasts is under light, so the plant cells in the green light-seeing part contain mitochondria and chloroplasts, and the plant cells in the light-seeing part only contain mitochondria. The root of the broad bean does not see light, but only contains mitochondria, leaf cells, and will contain chloroplasts and mitochondria.

Test Points: Mitochondria and chloroplasts are two types of energy converters in cells.

Generally speaking, as said on the first floor, green indicates the presence of chloroplasts, so mesophyll cells, as the main part of photosynthesis, contain a large number of chloroplasts, and others, as well as the epidermis or parenchyma cells of the young stem of plants, the cells in the petiole and the receptacle, and some flowers, the buds before opening may also contain a small amount of chloroplasts. The pericarp cells of green fruits also contain chloroplasts, such as cucumbers, etc. But cambium cells, apical cells do not have chloroplasts.

However, there are some plants that have pulp cells that contain a small amount of chloroplasts before maturity or some after maturity.

There are no large vacuoles: immature cells in the meristem, germ cells in pollen grains, specialized cells such as sieve tubes.

It is the difference in water potential between the vacuole and the extracellular fluid. The protoplasm layer acts as a semi-permeable membrane. In this way, the conditions of the two osmotic systems of concentration difference and semi-permeable membrane are satisfied.

The root cells of plants do not have chloroplasts.

This is because the roots are buried in the ground during the perennial period.

Unable to receive light Chloroplasts do not function.

Converted into mitochondria.

There are no chloroplasts.

The apical meristem cells do not have large vacuoles.

Because the cells are still developing, the organelles are not fully developed, and the vacuoles are not yet formed.

So there is no **large vacuole.

In fact, the growing cells of plants do not have large vacuoles.

But apical meristem cells are the most obvious.

I hope it will help you, if you don't understand, please ask.

Cells that do not have chloroplasts or large vacuoles are not necessarily animal cells, but can also be prokaryotic cells (such as bacteria, etc.) or plant meristem cells. Organisms with cell walls are not necessarily plant cells, but can also be prokaryotic cells (e.g., bacteria, etc.) or fungal cells (e.g., yeasts). Cyanobacteria are also aerobic in their partichondria.

Those without chloroplasts or large vacuoles are not necessarily animal cells, but may be apical cells.

What has a cell wall is not necessarily a plant cell, such as certain bacteria.

Non-chondrial cells are not able to respire.

Cells that do not have chloroplasts or large vacuoles are not necessarily animal cells, and cells in the apical meristem of plants do not have chloroplasts and large vacuoles.

Organisms with cell walls are not necessarily plant cells, and bacterial cells also have cell walls. Cells without mitochondria may also be able to perform aerobic respiration, such as aerobic bacteria.

The cell wall has a supporting role, so that the plant has a certain shape and the body is relatively hard, if the animal has a cell wall, it is not conducive to its movement, that is, it is not conducive to its feeding and avoiding enemies.

Chloroplasts have chlorophyll, which can photosynthesize to make organic matter, animals do not have it, so they must feed on plants directly or indirectly, which is good for plant growth and pollination, and seed dispersal.

Some of the organic matter produced by plant photosynthesis is stored in vacuoles, such as the watermelon juice we eat, which is some of the sugars produced by chloroplasts in plants such as watermelon through photosynthesis in vacuoles. None of these structures are associated with animals.

Because there are no proteins and genes in animal cells that synthesize cell walls, chloroplasts, vacuoles.

Because one is for metabolism and one for photosynthesis.

This is created by nature, and for no reason.

This is really a very interesting question, chloroplasts and mitochondria must have coexisted in ancient cells, and the organisms based on this cell must be chlorophyll organisms. Historically, there were certainly animals that contained chlorophyll, but they were eventually eliminated by natural selection. Let's restore the historical process, first of all, an animal containing chlorophyll was born, which can both eat grass and photosynthesize on its own, although the energy produced by photosynthesis is not much, but it is better than nothing.

As a dominant strategy, why is it missing in the cellular structure?I don't understand, so let's push forward. It is entirely possible for a cell to have both mitochondria and chlorophyll, and most plants have such a configuration.

Of course, we are still in a very primitive stage, and there is no division of plants and animals.

Plants can rely solely on photosynthesis because they use less energy (not moving, they don't have to maintain body temperature) and they also require a large amount of light-absorbing surface area (plants grow so many leaves, and grow towards light, etc.), which is simply not enough for animals. And in order to meet the energy needs, plants have to "sunbathe" for 12 hours a day (there is no light at night).First of all, animals can't stay there to bask in the sun, and secondly, the animal's ** can't stand it even if it's always sunbathing.

So, even if the sheep is genetically modified and covered in chlorophyll, it will still have to eat grass, but it may not need to eat as much.

The biggest difference between animals and plants is "moving", that is, moving, which leads to the disappearance of chlorophyll in the animal's body. Why does movement lead to the complete disappearance of chloroplasts?The answer is because of efficiency!

The energy produced by chloroplasts is not enough to support animal movement, but this is not a reason for its abandonment, it only means that chloroplasts are not so beneficial to animals. So why was he abandoned?!Because it's inefficient, it also takes up space!

Chloroplast is not a DNA system that is completely controlled by the nucleus, as the cell tissue continues to adapt to the environment, the expression of chloroplast will be affected by the environment, and the nuclear system does not control the chloroplast DNA enough, resulting in it not being able to hide or express like the nuclear DNA.

Euglena has chloroplasts in its body, but it is somewhere between an animal and a plant, and it is difficult to say whether it is an animal or not.

Come in with a confused face and go out with a confused face.