What will happen to plant if there is no chlorophyll?
154530
What will happen is that the plant will die coz chlorophyll is a pigment in plants that enables the plant to produce it's own food for survival so without chlorophyll it won't be able to produce it's own food thus resulting to death of the plant.
207951
Plants can sustain photosynthesis (and release oxygen) from any lightsource that has enough energy. But plants can also get stressed by too much light and actually get sick. They might also grow in unnatural ways, like growing sprouts all over, if "fed" the wrong amount of light for too long periods of time. \n\nPlants are tuned to natural light during ordinary hours but some plants can even "OD" on sunlight. When the sun shines too hot during a hot day they sometimes shutdown photosynthesis and begin to perspire. \n\nIt all comes down to what kind of plant it is. An ordinary house plant should release oxygen if the artificial light is not too intensive.
25254
Yes - higher and lower pH's and different mineral contents affect plants. The safest bet would be to get the plant in the right conditions, and then water with the purest water available, preferably distilled.
751534
Chlorophyll is a green photosynthetic pigment found green plants. Chlorophyll absorbs most strongly in the blue and red but poorly in the green portions of the electromagnetic spectrum, hence the green color of chlorophyll-containing tissues like plant leaves.
864820
Depends on the plant species.  Some trees shed their leaves in fall and don't grow them back until the next spring.  Anyway you're thinking wayyyyyyyyy too much about plants at a lunar base.  Anything brought there would most likely be stuck under some kind lamp to simulate light conditions on the earth, so your problem is moot.
276568
You may be confusing light with pigment.  If there is no light, the light can't be colored.  However, the pigment of the grass which absorbs all but green light is the same, whether light is shining on it or not.
620947
during winter season,the plant does not prepare its food.that means it doesn't require chlorophyll which is used in photosynthesis.the color of the leaves of the plants is due to chlorophyll but otherwise the leaves are actually yellow or orange etc in color so in winters when chlorophyll pigment disappears,the leaves shows its true color.the leaves dry because of lack of food and water which is not necessarily during winters only,it can be due to injury or disease etc also.
466674
Plants cannot change color in and of themselves.  What could happen, though, is that one plant could be pollinated by a neighboring plant and it would produce seed that contained some of the characteristics of both plants.
801568
I did an experiment with this in graduate school.  When a plant has limited to no light, it invests all of its energy and growth into finding a light source.  In my experiment, the plant grew very tall and had very few leaves (since it could not go through photosynthesis anyway, why bother).  It was a very interested experiment and proved that even plant have priorities.
223532
Maybe the MgCl woulf affect the plant by some chemical reaction i dunno what you are asking.
868354
No the plant could not produce starch without chlorophyll. They synthesize the sugar from water and carbon dioxide in a process called photosynthesis.
1008648
If there was no Sun, there would be very little life on Earth. Sunlight supports almost all life on Earth via photosynthesis, and, via heating from insulation, drives climate and the weather cycle.
1163949
Chlorophyll is a green photosynthetic pigment found in plants, algae, and cyanobacteria. Its name is derived from ancient Greek: chloros = green and phyllon = leaf. Chlorophyll absorbs most strongly in the blue and red but poorly in the green portions of the electromagnetic spectrum, hence the green color of chlorophyll-containing tissues like plant leaves.\n\nBesides chlorophyll a, there are other pigments, called accessory pigments, which occur in these pigment-protein antenna complexes. They include other forms of chlorohphyll, such as chlorophyll b in green algal and higher plant antennae, while other algae may contain chlorophyll c or d. In addition, there are many non-chlorophyll accessory pigments, such as carotenoids or phycobilins which also absorb light and transfer that light energy to the photosystem chlorophylls. Some of these accessory pigments, particularly the carotenoids, also serve to absorb and dissipate excess light energy, or work as antioxidants. The large, physically associated group of chlorophylls and other accesory pigments is sometimes referred to as a pigment bed, though this term is losing prominence with the advent of detailed knowledge of the structural organization of the photosystem and antenna complexes.\n\nThe function of the reaction center chlorophyll is to use the light energy absorbed by and transferred to it from the other chlorophylls in the photosystems to undergo a charge separation, a specific redox reaction in which the chlorophyll donates an electron into a series of molecular intermediates called an electron transport chain. The charged reaction center chlorophyll (P680+) is then reduced back to its ground state by accepting an electron. In Photosystem II, the electron which reduces P680+ ultimately comes from the oxidation of water into O2 and H+ through several intermediates. This reaction is how photosynthetic organisms like plants produce O2 gas, and is the source for practically all the O2 in Earth's atmosphere. Photosystem I typically works in series with Photosystem II, thus the P700+ of Photosystem I is usually reduced, via many intermediates in the thylacoid membrane, by electrons ultimately from Photosystem II. Electron transfer reactions in the thylacoid membranes are complex, however, and the source of electrons used to reduce P700+ can vary. The electron flow produced by the reaction center chlorohpylls is used to shuttle H+ ions across the thylacoid membrane, setting up a chemiosmotic potential mainly used to produce ATP chemical energy, and those electrons ultimately reduce NAD+ to NADPH a universal reductant used to reduce CO2 into sugars as well as for other biosynthetic reductions.
1169224
Plants will grow just fine when given milk, provided it is kept sterile.\n\nIf the milk is allowed to rot then the plant's roots will become infected and the plant will die.\n\nOf course if I forced you to live in a bth of rotting milk you would also die.
474853
All plants have chlorophyll..........................
744344
The non-green places are simply places that have no chlorophyll.  Chlorophyll is the green pigment that helps the plant to turn light energy into food.  While those places don't have chlorophyll, sometimes they do have other pigments that help the plant to capture light.  If not, they still have cells in them that do all the other things that plant cells do.
896536
Plants must have light to grow.  It doesn't necessarily have to be sunlight. Artificial light is a great to grow most plants too.  Photosynthesis is what causes plants to exchange necessary nutrients to create growth but each have unique abilities to utilize whatever light source is available.