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Does red absorbs the highest in blue green spectrum? 


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Red tattoos have been found to absorb maximally in the green spectrum, specifically ranging from 505 to 560 nm . Additionally, red light has been observed to have a higher quantum yield of CO2 assimilation compared to blue and green light . Furthermore, absorption studies on various algae species have indicated the presence of pigments that absorb light in the extreme red region, with absorption bands at 730 to 740 mµ and 750 to 760 mµ in green and red algae . These findings collectively suggest that red light does not absorb the highest in the blue-green spectrum; instead, it is more efficiently absorbed in the green spectrum.

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Blue-green algae exhibit absorption bands at 750 mμ, not red light. The pigment absorbing at 750 mμ is significant in these algae, as observed in Anacystis nidulans and Synechococcus cedrorum.
The absorption bands at 730-740 and 750-760 millimicrons in algae suggest pigments absorbing "extreme red" light, not the blue-green spectrum.
Yes, red tattoos absorb maximally in the green spectrum, specifically between 505 to 560 nm, as per the study on skin reflectance-guided laser selections for tattoo treatment.
Red light absorbs the highest in the blue-green spectrum due to its higher quantum yield of CO2 assimilation and efficient absorption, as indicated in the research findings.

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At which wavelength does red absorbs the highest?5 answersRed tattoos exhibit maximum absorption in the wavelength range of 505 to 560 nm, falling within the green spectrum. Additionally, a color filter array with a red filter layer, containing a xanthene dye with an absorption maximum at 500 to 600 nm, demonstrates excellent spectroscopic characteristics for red light. Moreover, novel symmetric all-BODIPY materials designed for red and near-IR emission show high molar absorption in the 655-730 nm region, making them efficient for optoelectronics applications. These diverse studies collectively highlight the absorption characteristics of red materials across different contexts, emphasizing the importance of understanding absorption spectra for various applications ranging from tattoo removal to optoelectronic device design.
Why does protein concentration increase absorption coomassie brilliant blue?3 answersThe absorption of Coomassie Brilliant Blue increases with protein concentration. The modified Bradford method, which uses Coomassie Brilliant Blue G, has been shown to detect proteins above 0.2 micrograms and from a solution above 0.4 micrograms/ml. The intensity of staining of protein zones in polyacrylamide gels by Coomassie Brilliant Blue G250 was increased by a factor of 3 when a wash of 5% acetic acid followed staining. The proposed method for determining water-insoluble protein surface hydrophobicity is based on the non-covalent binding of Coomassie Brilliant Blue G-250 to aromatic and basic amino acid residues on the surface of proteins. The amount of protein-bound Coomassie Brilliant Blue G-250 is applied as an indicator of protein surface hydrophobicity. The method for measuring protein in sludge using the Coomassie Brilliant Blue method is based on the fact that Coomassie Brilliant Blue G-250 becomes cyan when combined with protein, and the light absorption value is in direct proportion to protein content.
What does the blue shift in absorbance peak tells you Y6 CF and CB?5 answersThe blue shift in the absorbance peak can provide information about the electronic isolation of a molecule and the strength of hydrogen bonding interactions. In the context of the provided abstracts, the blue shift in the absorption edge of clathrate single crystals containing C60 indicates that C60 is electronically isolated in these compounds. Additionally, the blue shift in the photoluminescence excitation (PLE) spectrum of Nd3+:LaF3 crystals at lower temperatures suggests a decrease in absorption cross-section at the peak fluorescence wavelength. The blue shift of the stretching vibrations in complexes formed between CH acids and electron donor counterparts is influenced by the dipole moment function and intramolecular coupling between the interacting counterparts. The blue shift of the C-H stretching vibration in hydrogen bonds involving CF2H groups is influenced by the substituent Hammett constants and the attractive interaction between water and the carbon of CF2H.
What is the wavelength of absorbance of peg?4 answersThe absorbance wavelength of PEG is not explicitly mentioned in the abstracts provided.
Do red and green algae both have light harvesting molecules?3 answersYes, both red and green algae have light harvesting molecules. Green algae, such as Chlamydomonas reinhardtii and Chlorella variabilis, modify their light-harvesting functions in response to different light qualities. They primarily modify the associations between light-harvesting chlorophyll protein complexes (LHCs) and photosystems (PSs) to maintain photosynthetic efficiency under changing light conditions. Red light induces fluorescence quenching within the photosystems in Chlamydomonas and light-harvesting complexes in Chlorella. On the other hand, red algae, including seawater green algae, have specific pigment-protein complexes called phycobilisomes, which are involved in light harvesting and energy transfer processes. These complexes are found in the peripheral membrane and contain specific carotenoids. Therefore, both red and green algae have evolved light-harvesting mechanisms to adapt to their respective environments.
How do you read a absorbance spectrum graph?5 answers

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