Chlorophyll a
Chloraphyll A and B
Another important photosynthetic bacterial group-Halobacteria thrive in very salty environments, such as the Dead Sea and the Great Salt Lake. Halobacteria are unique in that they perform photosynthesis without chlorophyll. Instead, their photosynthetic pigments are bacteriorhodopsin and halorhodopsin. These pigments are similar to sensory rhodopsin, the pigment used by humans and other animals for vision. Bacteriorhodopsin and halorhodopsin are embedded in the cell membranes of halobacteria and each pigment consists of retinal, a vitamin-A derivative, bound to a protein. Irradiation of these pigments causes a structural change in their retinal. This is referred to as photoisomerization. Retinal photoisomerization leads to the synthesis of ATP. Halobacteria have two additional rhodopsins, sensory rhodopsin-I and sensory rhodopsin-II. These compounds regulate phototaxis, the directional movement in response to light.
It is a eukaryote because all plant cells are eukaryotes.
The thylakoid membrane of green plants contains 6 different pigments: Carotene - an orange pigment Xanthophyll - a yellow pigment Phaeophytin a - a gray-brown pigment Phaeophytin b - a yellow-brown pigment Chlorophyll a - a blue-green pigment Chlorophyll b- a yellow-green pigment Chlorophyll a is the most common of these 6 pigments (present in all photosynthetic plants).
They all have a nucleus.
Chloraphyll A and B
All photosynthetic organisms have chlorophyll or a similar pigment that captures light energy, allowing them to convert carbon dioxide and water into glucose and oxygen. They also have specialized structures, such as chloroplasts, where photosynthesis takes place. Additionally, they require sunlight to power the photosynthetic process.
Photosynthetic pigment consisting of chlorophyll a & b, carotene and xanthophyll.
The thylakoid membrane of green plants contains 6 different pigments: Carotene - an orange pigment Xanthophyll - a yellow pigment Phaeophytin a - a gray-brown pigment Phaeophytin b - a yellow-brown pigment Chlorophyll a - a blue-green pigment Chlorophyll b- a yellow-green pigment Chlorophyll a is the most common of these 6 pigments (present in all photosynthetic plants).
Another important photosynthetic bacterial group-Halobacteria thrive in very salty environments, such as the Dead Sea and the Great Salt Lake. Halobacteria are unique in that they perform photosynthesis without chlorophyll. Instead, their photosynthetic pigments are bacteriorhodopsin and halorhodopsin. These pigments are similar to sensory rhodopsin, the pigment used by humans and other animals for vision. Bacteriorhodopsin and halorhodopsin are embedded in the cell membranes of halobacteria and each pigment consists of retinal, a vitamin-A derivative, bound to a protein. Irradiation of these pigments causes a structural change in their retinal. This is referred to as photoisomerization. Retinal photoisomerization leads to the synthesis of ATP. Halobacteria have two additional rhodopsins, sensory rhodopsin-I and sensory rhodopsin-II. These compounds regulate phototaxis, the directional movement in response to light.
There are a four main photosynthetic pigments in green plants. Chlorophyll a, chlorophyll b, carotene and xanthophyll. These all absorb different areas of the spectrum therefore allowing the plant maximum absorption of light from the sun, and hence photosynthesise effectively.
The Kingdom Animalia is all eukaryote.
in which part of a plant cell does photosynthesis occur
Eukaryote, like all animals.
It is a eukaryote because all plant cells are eukaryotes.
The thylakoid membrane of green plants contains 6 different pigments: Carotene - an orange pigment Xanthophyll - a yellow pigment Phaeophytin a - a gray-brown pigment Phaeophytin b - a yellow-brown pigment Chlorophyll a - a blue-green pigment Chlorophyll b- a yellow-green pigment Chlorophyll a is the most common of these 6 pigments (present in all photosynthetic plants).
pigment is any substance that absorbs light. The color of the pigment comes from the wavelengths of light reflected (in other words, those not absorbed). Chlorophyll, the green pigment common to all photosynthetic cells, absorbs all wavelengths of visible light except green, which it reflects to be detected by our eyes. Black pigments absorb all of the wavelengths that strike them. White pigments/lighter colors reflect all or almost all of the energy striking them. Pigments have their own characteristic absorption spectra, the absorption pattern of a given pigment. the Light Dependent Processes (Light Reactions) light strikes chlorophyll a in such a way as to excite electrons to a higher energy state. BTW this is a yahoo answers response so give the other person credit. :)