For light harvestors with a reaction center complex (LH1-RC complex) of three types, we propose an experiment to verify our analysis based upon antenna theories that automatically include the required structural information. Our analysis conforms to  current understanding of light-harvesting antennae in that we can explain known properties of the complex. a functional role of the notch at the light harvestor, the functional role of the special pair, a reason  for the use of dielectric chlorophylls instead of a conductor to make the light harvestor , a mechanism to prevent damage from excess sunlight, an advantage of the dimeric form, a reason that the cross section of the light harvestor must not be circular, a reason for the modular design of nature , a function of the non-heme iron at the reaction center, and a reason that the light harvestor must not be spherical . Based upon our analysis we provide a mechanism for dimerization and propose an experiment . We predict the dimeric form of light-harvesting complexes is favoured under intense sunlight. We further comment upon the classification of the dimeric or S-shape complexes  .
For light harvesters with a reaction center complex (LH1-RC complex) of three types, we propose an experiment to verify our analysis based upon antenna theories that automatically include the required structural information. Our analysis conforms to the current understanding of light-harvesting antennae in that we can explain known properties of these complexes. We provide an explanation for the functional roles of the notch at the light harvester, a functional role of the polypeptide called PufX or W at the opening, a functional role of the special pair, a reason that the cross section of the light harvester must not be circular, a reason that the light harvester must not be spherical, reasons for the use of dielectric bacteriochlorophylls instead of conductors to make the light harvester , a mechanism to prevent damage from excess sunlight, an advantage of the dimeric form, and reasons for the modular design of nature . Based upon our analysis we provide a mechanism for dimerization . We predict the dimeric form of light-harvesting complexes is favoured under intense sunlight. We further comment upon the classification of the dimeric or S-shape complexes . The S-shape complexes should not be the third type of light harvester but simply as a composite form .
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harvestors
harvesters
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the
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the complex. a functional role
these complexes. We provide an explanation for the functional roles
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harvestor, the
harvester, a functional role of the polypeptide called PufX or W at the opening, a
A
that the cross section of the light harvester must not be circular, a reason that the light harvester must not be spherical, reasons
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chlorophylls instead of a conductor
bacteriochlorophylls instead of conductors
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harvestor
harvester
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a reason that the cross section of the light harvestor must not be circular, a reason
and reasons
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, a function of the non-heme iron at the reaction center, and a reason that the light harvestor must not be spherical
D
and propose an experiment
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. The S-shape complexes should not be the third type of light harvester but simply as a composite form