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1
Fast electrical potential from a long-lived, long-wavelength photoproduct of fly visual pigment.来自果蝇视觉色素的一种长寿命、长波长光产物的快速电势。
J Gen Physiol. 1974 Jun;63(6):740-56. doi: 10.1085/jgp.63.6.740.
2
The contribution of a sensitizing pigment to the photosensitivity spectra of fly rhodopsin and metarhodopsin.一种敏化色素对果蝇视紫红质和变视紫红质光敏光谱的贡献。
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3
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Heterogenic components of a fast electrical potential in Drosophila compound eye and their relation to visual pigment photoconversion.果蝇复眼中快速电位的异质成分及其与视觉色素光转换的关系。
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Spectral sensitivities and photopigments in adaptation of fly visual receptors.果蝇视觉感受器适应过程中的光谱敏感性和光色素
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The Role of Reversible Phosphorylation of Rhodopsin.视紫红质的可逆磷酸化作用的作用。
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Mutant Undergo Retinal Degeneration.突变体发生视网膜退化。
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Functional interplay of visual, sensitizing and screening pigments in the eyes of Drosophila and other red-eyed dipteran flies.果蝇和其他红眼双翅目昆虫眼睛中视觉、敏化和筛选色素的功能相互作用。
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Ectopic Expression of Mouse Melanopsin in Photoreceptors Reveals Fast Response Kinetics and Persistent Dark Excitation.小鼠黑视蛋白在光感受器中的异位表达揭示了快速反应动力学和持续的暗激发。
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Photopigment and receptor properties in Drosophila compound eye and ocellar receptors.果蝇复眼和单眼感受器中的光色素及感受器特性。
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Rapid photopigment conversions in blowfly visual sense cells consequences for receptor potential and pupillary response.家蝇视觉感受细胞中光色素的快速转换对感受器电位和瞳孔反应的影响
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Transduction in photoreceptors with bistable pigments: intermediate processes.使用双稳态色素的光感受器中的转导:中间过程。
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9
Photoconvertible pigment states and excitation in Calliphora; the induction and properties of the prolonged depolarising afterpotential.丽蝇中的光转换色素状态与激发;延长去极化后电位的诱导及其特性。
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10
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本文引用的文献

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Molecular and thermal origins of fast photoelectric effects in the squid retina.鱿鱼视网膜中快速光电效应的分子和热学起源。
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A NEW RECEPTOR POTENTIAL OF THE MONKEY RETINA WITH NO DETECTABLE LATENCY.猴子视网膜中一种无明显潜伏期的新感受器电位。
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Abnormal electroretinograms in visual mutants of Drosophila.果蝇视觉突变体中的异常视网膜电图。
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Nonphototactic mutants in a study of vision of Drosophila.果蝇视觉研究中的非趋光性突变体。
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Rhodopsin cycle in the living eye of the rat.大鼠活体眼睛中的视紫红质循环。
Nature. 1969 Mar 1;221(5183):820-2. doi: 10.1038/221820a0.
9
The sensitivity of housefly photoreceptors in the mid-ultraviolet and the limits of the visible spectrum.家蝇光感受器在中紫外区域的敏感性及可见光谱的极限
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A hyperpolarizing component of the receptor potential in the median ocellus of Limulus.鲎中眼感受器电位的超极化成分。
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来自果蝇视觉色素的一种长寿命、长波长光产物的快速电势。

Fast electrical potential from a long-lived, long-wavelength photoproduct of fly visual pigment.

作者信息

Pak W L, Lidington K J

出版信息

J Gen Physiol. 1974 Jun;63(6):740-56. doi: 10.1085/jgp.63.6.740.

DOI:10.1085/jgp.63.6.740
PMID:4829527
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2203578/
Abstract

A rapid electrical potential, which we have named the M-potential, can be obtained from the Drosophila eye using a high energy flash stimulus. The potential can be elicited from the normal fly, but it is especially prominent in the mutant norp A(P12) (a phototransduction mutant), particularly if the eye color pigments are genetically removed from the eye. Several lines of evidence suggest that the M-potential arises from photoexcitation of long-lived metarhodopsin. Photoexcitation of rhodopsin does not produce a comparable potential. The spectral sensitivity of the M-potential peaks at about 575 nm. The M-potential pigment (metarhodopsin) can be shown to photoconvert back and forth with a "silent pigment(s)" absorbing maximally at about 485 nm. The silent pigment presumably is rhodopsin. These results support the recent spectrophotometric findings that dipteran metarhodopsin absorbs at much longer wavelengths than rhodopsin. The M-potential probably is related to the photoproduct component of the early receptor potential (ERP). Two major differences between the M-potential and the classical ERP are: (a) Drosophila rhodopsin does not produce a rapid photoresponse, and (b) an anesthetized or freshly sacrificed animal does not yield the M-potential. As in the case of the ERP, the M-potential appears to be a response associated with a particular state of the fly visual pigment. Therefore, it should be useful in in vivo investigations of the fly visual pigment, about which little is known.

摘要

利用高能闪光刺激,可从果蝇眼睛中获得一种快速电势,我们将其命名为M电势。这种电势可从正常果蝇中引出,但在突变体norp A(P12)(一种光转导突变体)中尤为显著,特别是当从眼睛中通过基因手段去除眼色色素时。多条证据表明,M电势源自长寿命变视紫红质的光激发。视紫红质的光激发不会产生类似的电势。M电势的光谱敏感性在约575纳米处达到峰值。M电势色素(变视紫红质)可被证明能与一种在约485纳米处有最大吸收的“沉默色素”来回进行光转换。推测这种沉默色素就是视紫红质。这些结果支持了最近的分光光度法研究结果,即双翅目昆虫的变视紫红质比视紫红质在长得多的波长处有吸收。M电势可能与早期受体电位(ERP)的光产物成分有关。M电势与经典ERP之间的两个主要区别在于:(a)果蝇视紫红质不会产生快速光反应,(b)麻醉或刚处死的动物不会产生M电势。与ERP的情况一样,M电势似乎是与果蝇视觉色素的特定状态相关的一种反应。因此,它在对果蝇视觉色素的体内研究中应该会很有用,而目前对果蝇视觉色素了解甚少。