Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Chlorophylls, Symmetry, Chirality, and Photosynthesis

View through CrossRef
Chlorophylls are a fundamental class of tetrapyrroles and function as the central reaction center, accessory and photoprotective pigments in photosynthesis. Their unique individual photochemical properties are a consequence of the tetrapyrrole macrocycle, the structural chemistry and coordination behavior of the phytochlorin system, and specific substituent pattern. They achieve their full potential in solar energy conversion by working in concert in highly complex, supramolecular structures such as the reaction centers and light-harvesting complexes of photobiology. The biochemical function of these structures depends on the controlled interplay of structural and functional principles of the apoprotein and pigment cofactors. Chlorophylls and bacteriochlorophylls are optically active molecules with several chiral centers, which are necessary for their natural biological function and the assembly of their supramolecular complexes. However, in many cases the exact role of chromophore stereochemistry in the biological context is unknown. This review gives an overview of chlorophyll research in terms of basic function, biosynthesis and their functional and structural role in photosynthesis. It highlights aspects of chirality and symmetry of chlorophylls to elicit further interest in their role in nature.
Title: Chlorophylls, Symmetry, Chirality, and Photosynthesis
Description:
Chlorophylls are a fundamental class of tetrapyrroles and function as the central reaction center, accessory and photoprotective pigments in photosynthesis.
Their unique individual photochemical properties are a consequence of the tetrapyrrole macrocycle, the structural chemistry and coordination behavior of the phytochlorin system, and specific substituent pattern.
They achieve their full potential in solar energy conversion by working in concert in highly complex, supramolecular structures such as the reaction centers and light-harvesting complexes of photobiology.
The biochemical function of these structures depends on the controlled interplay of structural and functional principles of the apoprotein and pigment cofactors.
Chlorophylls and bacteriochlorophylls are optically active molecules with several chiral centers, which are necessary for their natural biological function and the assembly of their supramolecular complexes.
However, in many cases the exact role of chromophore stereochemistry in the biological context is unknown.
This review gives an overview of chlorophyll research in terms of basic function, biosynthesis and their functional and structural role in photosynthesis.
It highlights aspects of chirality and symmetry of chlorophylls to elicit further interest in their role in nature.

Related Results

Fundamental Symmetries and Symmetry Violations from High Resolution Spectroscopy
Fundamental Symmetries and Symmetry Violations from High Resolution Spectroscopy
AbstractAfter an introductory survey, we introduce the seven fundamental symmetries of physics in relation to the group of the molecular Hamiltonian and the current standard model ...
Molecular chirality quantification: Tools and benchmarks
Molecular chirality quantification: Tools and benchmarks
Molecular chirality has traditionally been viewed as a binary property where a molecule is classified as either chiral or achiral, yet in recent decades, mathematical methods for q...
Algal Photosynthesis
Algal Photosynthesis
AbstractAlgae are a very diverse group of predominantly aquatic photosynthetic organisms that account for almost 50% of the photosynthesis that takes place on Earth. Algae have a w...
Chirality and Chiroptical Properties of Amyloid Fibrils
Chirality and Chiroptical Properties of Amyloid Fibrils
ABSTRACTChirality of amyloid fibrils‐linear beta‐sheet‐rich aggregates of misfolded protein chains‐often manifests in morphological traits such as helical twist visible in atomic f...
Advances in Chirality Sensing with Macrocyclic Molecules
Advances in Chirality Sensing with Macrocyclic Molecules
The construction of chemical sensors that can distinguish molecular chirality has attracted increasing attention in recent years due to the significance of chiral organic molecules...
Crystal-chirality-dependent control of magnetic domains in a time-reversal-broken antiferromagnet
Crystal-chirality-dependent control of magnetic domains in a time-reversal-broken antiferromagnet
AbstractChiral-lattice magnets can exhibit a variety of physical phenomena when time-reversal symmetry is broken by their magnetism. For example, nonreciprocal responses of (quasi)...
Annual cycle of Scots pine photosynthesis
Annual cycle of Scots pine photosynthesis
Abstract. Photosynthesis, i.e. the assimilation of atmospheric carbon to organic molecules with the help of solar energy, is a fundamental and well-understood process. Here, we con...
Annual cycle in scots pine's photosynthesis
Annual cycle in scots pine's photosynthesis
Abstract. Photosynthesis, i.e. the assimilation of atmospheric carbon to organic molecules with the help of solar energy, is a fundamental and well understood process. Here, we con...

Back to Top