Limulus opsins: Diurnal regulation of expression
Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and ass...
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Published in | Visual neuroscience Vol. 20; no. 5; pp. 523 - 534 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
New York, USA
Cambridge University Press
01.09.2003
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Subjects | |
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Abstract | Much has been learned from studies of Limulus photoreceptors
about the role of the circadian clock and light in the removal of
photosensitive membrane. However, little is known in this animal about
mechanisms regulating photosensitive membrane renewal, including the
synthesis of proteins in, and associated with, the photosensitive
membrane. To begin to understand renewal, this study examines diurnal
changes in the levels of mRNAs encoding opsin, the integral membrane
protein component of visual pigment, and the relative roles of light
and the circadian clock in producing these changes. We show that at
least two distinct opsin genes encoding very similar proteins are
expressed in both the lateral and ventral eyes, and that during the day
and night in the lateral eye, the average level of mRNA encoding opsin1
is consistently higher than that encoding opsin2. Northern blot assays
showed further that total opsin mRNA in the lateral eyes of animals
maintained under natural illumination increases during the afternoon (9
& 12 h after sunrise) in the light and falls at night in the dark.
This diurnal change occurs whether or not the eyes receive input from
the circadian clock, but it is eliminated in eyes maintained in the
dark. Thus, it is regulated by light and darkness, not by the circadian
clock, with light stimulating an increase in opsin mRNA levels. The
rise in opsin mRNA levels observed under natural illumination was
seasonal; it occurred during the summer but not the spring and fall.
However, a significant increase in opsin mRNA levels could be achieved
in the fall by exposing lateral eyes to 3 h of natural illumination
followed by 9 h of artificial light. The diurnal regulation of opsin
mRNA levels contrasts sharply with the circadian regulation of visual
arrestin mRNA levels (Battelle et al., 2000).
Thus, in Limulus, distinctly different mechanisms regulate the
levels of mRNA encoding two proteins critical for the
photoresponse. |
---|---|
AbstractList | Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and associated with, the photosensitive membrane. To begin to understand renewal, this study examines diurnal changes in the levels of mRNAs encoding opsin, the integral membrane protein component of visual pigment, and the relative roles of light and the circadian clock in producing these changes. We show that at least two distinct opsin genes encoding very similar proteins are expressed in both the lateral and ventral eyes, and that during the day and night in the lateral eye, the average level of mRNA encoding opsinl is consistently higher than that encoding opsin2. Northern blot assays showed further that total opsin mRNA in the lateral eyes of animals maintained under natural illumination increases during the afternoon (9 & 12 h after sunrise) in the light and falls at night in the dark. This diurnal change occurs whether or not the eyes receive input from the circadian clock, but it is eliminated in eyes maintained in the dark. Thus, it is regulated by light and darkness, not by the circadian clock, with light stimulating an increase in opsin mRNA levels. The rise in opsin mRNA levels observed under natural illumination was seasonal; it occurred during the summer but not the spring and fall. However, a significant increase in opsin mRNA levels could be achieved in the fall by exposing lateral eyes to 3 h of natural illumination followed by 9 h of artificial light. The diurnal regulation of opsin mRNA levels contrasts sharply with the circadian regulation of visual arrestin mRNA levels (Battelle et al., 2000). Thus, in Limulus, distinctly different mechanisms regulate the levels of mRNA encoding two proteins critical for the photoresponse. Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and associated with, the photosensitive membrane. To begin to understand renewal, this study examines diurnal changes in the levels of mRNAs encoding opsin, the integral membrane protein component of visual pigment, and the relative roles of light and the circadian clock in producing these changes. We show that at least two distinct opsin genes encoding very similar proteins are expressed in both the lateral and ventral eyes, and that during the day and night in the lateral eye, the average level of mRNA encoding opsin1 is consistently higher than that encoding opsin2. Northern blot assays showed further that total opsin mRNA in the lateral eyes of animals maintained under natural illumination increases during the afternoon (9 & 12 h after sunrise) in the light and falls at night in the dark. This diurnal change occurs whether or not the eyes receive input from the circadian clock, but it is eliminated in eyes maintained in the dark. Thus, it is regulated by light and darkness, not by the circadian clock, with light stimulating an increase in opsin mRNA levels. The rise in opsin mRNA levels observed under natural illumination was seasonal; it occurred during the summer but not the spring and fall. However, a significant increase in opsin mRNA levels could be achieved in the fall by exposing lateral eyes to 3 h of natural illumination followed by 9 h of artificial light. The diurnal regulation of opsin mRNA levels contrasts sharply with the circadian regulation of visual arrestin mRNA levels (Battelle et al., 2000). Thus, in Limulus , distinctly different mechanisms regulate the levels of mRNA encoding two proteins critical for the photoresponse. Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and associated with, the photosensitive membrane. To begin to understand renewal, this study examines diurnal changes in the levels of mRNAs encoding opsin, the integral membrane protein component of visual pigment, and the relative roles of light and the circadian clock in producing these changes. We show that at least two distinct opsin genes encoding very similar proteins are expressed in both the lateral and ventral eyes, and that during the day and night in the lateral eye, the average level of mRNA encoding opsinl is consistently higher than that encoding opsin2. Northern blot assays showed further that total opsin mRNA in the lateral eyes of animals maintained under natural illumination increases during the afternoon (9 & 12 h after sunrise) in the light and falls at night in the dark. This diurnal change occurs whether or not the eyes receive input from the circadian clock, but it is eliminated in eyes maintained in the dark. Thus, it is regulated by light and darkness, not by the circadian clock, with light stimulating an increase in opsin mRNA levels. The rise in opsin mRNA levels observed under natural illumination was seasonal; it occurred during the summer but not the spring and fall. However, a significant increase in opsin mRNA levels could be achieved in the fall by exposing lateral eyes to 3 h of natural illumination followed by 9 h of artificial light. The diurnal regulation of opsin mRNA levels contrasts sharply with the circadian regulation of visual arrestin mRNA levels (Battelle et al., 2000). Thus, in Limulus, distinctly different mechanisms regulate the levels of mRNA encoding two proteins critical for the photoresponse. Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and associated with, the photosensitive membrane. To begin to understand renewal, this study examines diurnal changes in the levels of mRNAs encoding opsin, the integral membrane protein component of visual pigment, and the relative roles of light and the circadian clock in producing these changes. We show that at least two distinct opsin genes encoding very similar proteins are expressed in both the lateral and ventral eyes, and that during the day and night in the lateral eye, the average level of mRNA encoding opsin1 is consistently higher than that encoding opsin2. Northern blot assays showed further that total opsin mRNA in the lateral eyes of animals maintained under natural illumination increases during the afternoon (9 & 12 h after sunrise) in the light and falls at night in the dark. This diurnal change occurs whether or not the eyes receive input from the circadian clock, but it is eliminated in eyes maintained in the dark. Thus, it is regulated by light and darkness, not by the circadian clock, with light stimulating an increase in opsin mRNA levels. The rise in opsin mRNA levels observed under natural illumination was seasonal; it occurred during the summer but not the spring and fall. However, a significant increase in opsin mRNA levels could be achieved in the fall by exposing lateral eyes to 3 h of natural illumination followed by 9 h of artificial light. The diurnal regulation of opsin mRNA levels contrasts sharply with the circadian regulation of visual arrestin mRNA levels (Battelle et al., 2000). Thus, in Limulus, distinctly different mechanisms regulate the levels of mRNA encoding two proteins critical for the photoresponse. Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and associated with, the photosensitive membrane. To begin to understand renewal, this study examines diurnal changes in the levels of mRNAs encoding opsin, the integral membrane protein component of visual pigment, and the relative roles of light and the circadian clock in producing these changes. We show that at least two distinct opsin genes encoding very similar proteins are expressed in both the lateral and ventral eyes, and that during the day and night in the lateral eye, the average level of mRNA encoding opsin1 is consistently higher than that encoding opsin2. Northern blot assays showed further that total opsin mRNA in the lateral eyes of animals maintained under natural illumination increases during the afternoon (9 & 12 h after sunrise) in the light and falls at night in the dark. This diurnal change occurs whether or not the eyes receive input from the circadian clock, but it is eliminated in eyes maintained in the dark. Thus, it is regulated by light and darkness, not by the circadian clock, with light stimulating an increase in opsin mRNA levels. The rise in opsin mRNA levels observed under natural illumination was seasonal; it occurred during the summer but not the spring and fall. However, a significant increase in opsin mRNA levels could be achieved in the fall by exposing lateral eyes to 3 h of natural illumination followed by 9 h of artificial light. The diurnal regulation of opsin mRNA levels contrasts sharply with the circadian regulation of visual arrestin mRNA levels (Battelle et al., 2000). Thus, in Limulus, distinctly different mechanisms regulate the levels of mRNA encoding two proteins critical for the photoresponse. Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane. However, little is known in this animal about mechanisms regulating photosensitive membrane renewal, including the synthesis of proteins in, and associated with, the photosensitive membrane. To begin to understand renewal, this study examines diurnal changes in the levels of mRNAs encoding opsin, the integral membrane protein component of visual pigment, and the relative roles of light and the circadian clock in producing these changes. We show that at least two distinct opsin genes encoding very similar proteins are expressed in both the lateral and ventral eyes, and that during the day and night in the lateral eye, the average level of mRNA encoding opsin1 is consistently higher than that encoding opsin2. Northern blot assays showed further that total opsin mRNA in the lateral eyes of animals maintained under natural illumination increases during the afternoon (9 & 12 h after sunrise) in the light and falls at night in the dark. This diurnal change occurs whether or not the eyes receive input from the circadian clock, but it is eliminated in eyes maintained in the dark. Thus, it is regulated by light and darkness, not by the circadian clock, with light stimulating an increase in opsin mRNA levels. The rise in opsin mRNA levels observed under natural illumination was seasonal; it occurred during the summer but not the spring and fall. However, a significant increase in opsin mRNA levels could be achieved in the fall by exposing lateral eyes to 3 h of natural illumination followed by 9 h of artificial light. The diurnal regulation of opsin mRNA levels contrasts sharply with the circadian regulation of visual arrestin mRNA levels (Battelle et al., 2000). Thus, in Limulus, distinctly different mechanisms regulate the levels of mRNA encoding two proteins critical for the photoresponse. [PUBLICATION ABSTRACT] |
Author | JINKS, ROBERT N. GREENBERG, ROBERT M. BATTELLE, BARBARA-ANNE DALAL, JASBIR S. CACCIATORE, CHELSIE |
Author_xml | – sequence: 1 givenname: JASBIR S. surname: DALAL fullname: DALAL, JASBIR S. organization: Whitney Laboratory and Department of Neuroscience, University of Florida, St. Augustine – sequence: 2 givenname: ROBERT N. surname: JINKS fullname: JINKS, ROBERT N. organization: Department of Biology and Biological Foundations of Behavior Program, Franklin and Marshall College, Lancaster, PA – sequence: 3 givenname: CHELSIE surname: CACCIATORE fullname: CACCIATORE, CHELSIE organization: Whitney Laboratory and Department of Neuroscience, University of Florida, St. Augustine – sequence: 4 givenname: ROBERT M. surname: GREENBERG fullname: GREENBERG, ROBERT M. organization: Whitney Laboratory and Department of Neuroscience, University of Florida, St. Augustine – sequence: 5 givenname: BARBARA-ANNE surname: BATTELLE fullname: BATTELLE, BARBARA-ANNE organization: Whitney Laboratory and Department of Neuroscience, University of Florida, St. Augustine |
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Keywords | Circadian rhythms Limulus Photoreceptors Opsin genes Diurnal rhythms Biological clock Eye Visual system Messenger RNA Biological rhythm Opsin Circadian rhythm Gene expression Invertebrata |
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Snippet | Much has been learned from studies of Limulus photoreceptors
about the role of the circadian clock and light in the removal of
photosensitive membrane.... Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane.... Much has been learned from studies of Limulus photoreceptors about the role of the circadian clock and light in the removal of photosensitive membrane.... |
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SubjectTerms | Adapter proteins Amino acids Animals Autoradiography Biochemistry. Physiology. Immunology Biological and medical sciences Biological clocks Blotting, Northern - methods Blotting, Southern Circadian rhythm Circadian Rhythm - physiology Circadian rhythms Crustacea Denervation - methods Diurnal rhythms Eye - cytology Eye - metabolism Functional Laterality Fundamental and applied biological sciences. Psychology Gene Expression Regulation - physiology Horseshoe Crabs Invertebrates Limulus Molecular Sequence Data Opsin genes Optic nerve Photoreceptor Cells, Invertebrate - metabolism Photoreceptors Physiology. Development Renewals Reverse Transcriptase Polymerase Chain Reaction - methods RNA, Messenger - metabolism Rod Opsins - genetics Rod Opsins - metabolism Time Factors Vertebrates |
Title | Limulus opsins: Diurnal regulation of expression |
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