Histological Analysis of the Retina of Mammals
The vertebrate eye focuses light on its cells. The eye cells absorb light to form images from the surrounding (Tosini et al., 2007). Comprehending retina histology exposes the functionalities of the eye which in turn helps in developing medication. The convolution of the retina, from its detailed multi-layered outlook to its numerous cell varieties and operations has helped specialists form visual perception on retina processes and other neighboring organs. Presently, the retina performs two tasks- converting light into electrical waves; retina interneurons conducting physiological procedures in order to form images from visual stimulations. One of the most direct passageways is photoreceptors, bipolar cells, and then ganglion cells. The mammalian eye specializes in detecting and analyzing light. The eye consists of a fluid cavity surrounded by three coated tissue. The external section consists of the cornea, limbus, and sclera. The cornea makes is the transparent part of the mammalian eye and the while section is the sclera. Both tissues are made up of collagen fibers (Contín et al., 2013). The cornea performs the refractive functions of the eye. The sclera is firm and resilient to infiltration hence can safeguard other intricate sections of the inner eye. The limbus marks the transition part between the cornea and sclera.
The fundamental structure of retinal information dispensation involves visual details that move from photoreceptors to bipolar tissues to the ganglion region (Peng et al., 2017). The ganglion region initials activities which enable other parts of the eye to respond to light. These impulses from the ganglion region are propagated through the optic nerve in the brain nuclei for projection.
The Mammalian Eye
Mammals have a pair of eyes. Even though mammalian vision cannot be compared to bird eyesight, it can perceive color. The eye dimension varies from one mammal to another. The vertical axis grows larger with age. The mammalian eye structure assumes a laminar arrangement which can be partitioned into three key parts (Luz et al., 2014). The names usually reflect on the functionalities of each part. The fibrous, the vascular, and the nervous part. The fibrous part is the external part and is made up of the cornea and sclera. The sclera is the white section of the eye. The sclera contains thick connective nerves. Protein collagen found within the sclera insulates the eye from damage and infection.
The vascular part makes up the middle eye section. This section consists of the iris, ciliary cells, and choroid. The choroid harbors red blood cells which circulate oxygen to the retinal tissues and eliminate waste material from the eye (Osakada et al., 2007). The choroid retains the dark color within the inner eye which prevents reflections in the eye. The iris is visible and can be seen when one looks into the eye of another person due to its transparency. The pupil is an essential aperture which prevents reflection of light due to its dark cells. Besides the pupil, the nervous part contains sensory layers such as the retina. The retina participates in vision procession due to its photosensitive cells. Photosensitive cells are made up of rods, cones, and their associated neurons. To enhance vision and light intake, the retina is smoothened and arched. The retinal center is known as fovea centralis and is made of a high number of rods and cones. This explains the underlying reasons why the fovea centralis has visual clarity and easily detects items. Hence, the mammalian retina is the constituent in the optical structure (Ly et al., 2015). Not only does the retina transduces light energy into an image that can be interpreted within the neurons, but it also filters certain features of an image to suit brain interpretation. Motion, color, quality specifics, and contrast are processed by various ganglion cells. Initial retina synapse- the cone structure, has one of the most multifaceted synapses in the central nervous system. Light indications are moved through retina synapse bipolar cells. Horizontal cells control the synaptic diffusion at the cone structures by giving a negative response and bipolar cells transmit light waves in the retina area. There are various types of bipolar cells. There are various bipolar cells and within the chimpanzee retina, bipolar cells give separate cone lines among the ganglion cells. Therefore, the bipolar cells signify the red-green color zone within the retina region. The majority of the bipolar cells move illumination indications into the internal sections of the retina. The rod signifies the movement of singular bipolar cells and it encounters a cone pathway via the amacrine cells (Garrido et al., 2014). This is one of the most complex rod passageways. Recently, rod pathways were unveiled via the retina. In the mammalian eye, different types of ganglion cells form dendrites hence closing in the gaps within the retina. The brisk cells and color oriented ganglions are some of the most important parts of a retina.
The retinal tissues are utilized during eye surgeries. After dissection, the retinal parts can be rectified at room temperature. The retinal parts can be kept in sucrose for preservation and protection. Once dissected, the retina can be observed under a microscope. Depending on professional interest, numerous mechanisms can be used to study the eye. Hematoxylin-eosin discoloration can help envisage the inner components of the retina (Palacios et al., 2010). Golgi staining assists in the labeling of the different parts of the eye and even assign each segment its ph. Immunochemistry enabled tracking the various proteins using various antibodies. Immunochemistry has played a significant role in retinal histology. As stated earlier, photoreceptors are made up of rods and cones. Rods and cons make up the inner and outer parts of the retina and their organizational distinction and observable through microscopes. The external sections of the rod comprise of membranous circular objectives which look like coins. On the other hand, the external sections of the cones harbor enfolding of the outer tissue which taper marginally thus developing cones. The external plexiform coating connects the photoreceptors and the bipolar cells as observed under an electron microscope. Bipolar cells are special due to their dendritic outlook above the axons. Ganglion cells contain enlarged cells with dendritic channels. Furthermore, the amacrine cells process cells which contain characteristics of axons and dendrites thus permitting the conversion of light within the retinal cells.
The Cells of the Retina and Multiple Species Comparisons
Dissociated retina tissues from a rabbit's eye reveal a combination of cells within the retinal region. Various retinal cells contain various cells hence explaining cell specifications associated with retina (Storch et al., 2007). Thus, the study of retina morphology provides a deeper understanding of the evolutionary adaptations of the retina within various surroundings. The confines of the eye’s walls consist of three concentric coatings. The external tunica fibroma plays a skeletal function as it maintains the eyeball shape hence the ability of the eye to bring into focus distant objects relies heavily on the shape of the eye.
Verified information on the connectivity of the mammal retina neurons is derived from years of studying. For comparison to taking place, samples must first be collected for the study. The species most likely to be used in comparison studies are hamsters and pigs. For the sake of eliminating impacts of light on the process, all the eyes can be dissected at the same time. After the extraction of the eye, the main function of the eye was noted (Silberman et al., 2014). Even though the retina of each mammal appeared to be the same, they differed in terms of neurochemistry and even the size and shape of some of the parts. These comparison experiments reveal that the mammalian retina can be reprogrammed to suit certain functions and situational conditions. It is vital to note that several mammals' species have the ability to transdifferentiate the retina section. For instance, a chick can transdifferentiate its retina according to histological inspections. Removal of a chick's eye during the embryonic stages and then applying pigmentation to the retinal section assists in observing transdifferentiation. Recently, experts proved that somatic mammalian tissues could be restructured to match a prompted pluripotent stem tissue. The ability to manipulate the eye considers situational factors such as the amount of light and life stages of the eye cells. More so, effective differentiation of prompted stem cells into neural retina tissues is one of the ways of treating retinal parts during therapy.
The function and arrangement of the mammalian retina is an important task in present-day society. The retina's photoreceptor enables people to perceive light signals, transforming light energy into nerve impulses, and transferring impulses to the brain. Retina rods facilitate the interpretation of colors and cones perceive light. Cones are linked through the bipolar neuron to the ganglion retina sections (Lenkowski et al., 2013). Horizontal and amacrine tissues are inhibitory nerves whose role is interacting with the retinal and its functionalities. Processing visual material within the retina is important due to the receptive sections and stimulation nerves it contains in its anatomy. More so, the mammal retina forms a tinny layer of neural cells behind the eyeball which transforms light into an electrical indication. The neural retina varies in size depending on the mammal in question and usually represents reduction. The retina is known for spatial detail processing due to the cones and rods photoreceptors. Cones and rods are light-sensitive features signaled every time electrical signals are generated from the retina. The spatial material is kept via the geniculate nuclei and then mapped into the retina for other processing regions. There is relative processing within the retina and the brain systems and people understand these electrical indications as visualization. Even though vision is an analog mechanism, experts claim the brain and the eyes can be used to make a model which carries out metabolism, and diffusion.
Meanwhile, Amacrine cells are vital interneurons situated in the internal retina and their function may only be observed or detected under specific waveforms (Yu et al., 2011). As earlier specified, Amacrine cells are inhibitory neurons and develop dendritic cells on internal coatings of the plexiform. In other words, they join the bipolar to the ganglion cells. Amacrine cells absorb electric waves from the bipolar tissues and also enable management and incorporation of activities within the bipolar and ganglion tissues. In simpler terms, Amacrine cells integrate with synaptic perpendicular pathways. Hence, amacrine cells are synaptically dynamic within the internal plexiform coatings and their main functions are integrating, modulating, and interposing sequential domains to the graphic dispatch introduced to the ganglion tissues. Amacrine cells are lack axons within their structures. Amacrine cells remain hosted within the retina. Amacrine cells vary in size and shape as one moves from one mammal to another. It is vital to note that Amacrine cell synapses usually reciprocate bipolar activities that are, the Amacrine synapse responds whenever bipolar cells input are sent out into the retina. The majority of the amacrine cells possess common neurotransmitters for responding to reciprocal waves from the bipolar regions. Thus, from a general point of view, intermingle with subsequent synaptic waves from the perpendicular pathway is made up of photoreceptors. Within the plexiform coatings, active synapses have to modulate visual transmission from other regions of the retina for refinement and interpretation.
The retina connects to the central nervous system and this explains the underlying reasons retinal damage may lead to loss of vision. Even though regulation of retinal neurons the diversity of the retina and the neighboring cells. The cellular components are carefully constituted in mammals. Investigating rabbits and mice retina revealed that bipolar and other parts of the retina make up a constant fraction of retina functionalities. Hence, the retina arrangement is similar across different mammals (Provis et al., 2013). It is good to note that the retina structure differs from one mammal to another but it can be modified based on the mammal’s visual requirements. Retina alterations are intensely composed. The ganglion layer plays a crucial role in adjusting the retina in order to fit the visual demands of the mammals. For instance, prey mammals possess parallel shaped ganglion cells that facilitate visual detection and isolation of images at various locations in order to detect predators (Craig, Calinescu, & Hitchcock, 2008). On the other hand, predators need high-resolution visualization. In order to supplement high-resolution needs, a predator's retina is situated in the optical axis consequently increasing ganglion cell thickness. For example, fish contains intensively compacted ganglion cells within the retina (Haynes et al., 2013). Similarly, the photoreceptors vary from one mammal to another. The dissemination and percentage of photoreceptors inform the mammal's nature. Mammals with numerous rods within the retina such a rat, normally inhabit nightly surroundings. Whereas mammals with an equal proportion of cones and rods live in diurnal environments because they can detect graphic stimulations in photopic and scotopic situations.
Nocturnal mammals usually have larger eyes than humans do. In deem lit areas, their pupils widen hence collecting more light from the environment. As light enters the pupil, the lens concentrates it on the retina. The lens connects to the brain through the optic nerve. The retina is a highly multilayered structure (Haynes et al., 2013). The rods and cones consist of ten distinguishable layers. The concentration of sensory nerve cells is concentrated in the eyes than any other place in the body. The retina contains various types of photoreceptors- cones and rods. Both photoreceptors are named after their shapes. Cones function during the daytime while rods function under low light intensity. Rods are intensively differentiated in nocturnal mammals. For example bats’ retina lack cones while other mammals have only a few rods. Most of the nocturnal animals have a tapetum- a feature that maximizes the amount of light entering the retina (Sher et al., 2013). The tapetum reflects light on the retina back via the retina hence ensuring that light falls on sensitive rods. The tapetum assists people see through a flashing light as it concentrates light on light-sensitive rods. In other words, the retina's role is processing light hence allowing mammals to see objectives around them. Rod photoreceptors react to various amounts of light hence sensitive toward dim lightings. The ability to differentiate one objective from another heavily relies on rod functions. On the other hand, cones help mammals interpret color information hence bringing about visual perception and clarity. The rhodopsin takes in light, enabling rods to steadily allow light to pass into the eyes in dimly light places consequently helping people to see in darkly lit rooms or situations. Diurnal mammals have smaller eyes compared to nocturnal animals.
Bovine Retina and Marine Comparison
The description of the visual features of bovine retinal tincture reveals uncultured physiology and well-defined ultrastructure. From previous studies, the bovine retina is similar in some ways to that of other primates but exceptional in some cases (Avanesov, & Malicki, 2010). The existence of cones in the bovine retina is never been exploited in detailed analysis. Defining endothelial cells confirms the ultrastructure of the bovine retina may vary with time. Retaining the presence of endothelial cells alters the rate of metabolism and storage. The alteration in induced metabolism affects the ultrastructure of the bovine retina. The human eye is a multifaceted tissue despite its small size. The eye enables humans to see their surroundings without any problem. For example, it alters light entering and going out of the eye. This procedure visualizes the whole surrounding hence humans are able to see. The eye has a special focusing system which is fast and effective. The fragile sections of the bovine eye coordinate with each other to give out details to the brain and then the brain interprets it instantly hence producing quality images to an individual. A bovine retina is similar to the human eye. Dissecting a bovine eye exposes detailed anatomy information hence assists people to learn more about the eye. The horizontal cells help in contrasting, upgrading, and preserving of spatial information. The Muller cells contain glial which sustain metabolism and homeostasis within the confines of the retina. The bovine retina converts light energy into chemical indications before uploading them into the brain. This conversion procedure requires the capability to sense light stimulation and convey that particular signal from one region to another. In the bovine retina, light detection starts at the innermost retina cells, the photoreceptors, situated on the external coating. Rods are sensitive in light and ensure visibility in dimly lit areas. The use of photoreceptors to communicate at the synapse level with an external plexiform layer is facilitated via neurotransmitters (Abbott et al., 2011). Bipolar cell's organs are shallow at the nuclear section. Within the internal plexiform coatings, bipolar cells ensure the conduction of impulses to the ganglion regions. Retina ganglion cells receive the last signals and then transmitted from the original trigger. The received signals are sent to the axon. The axon conveys the electric impulses further to the optic nerve and the brain. The modulation of stimulated cells via ganglion dendrites ensures the stabilization of neuron activity. Depending on the need, different mechanisms can be applied in the visualization of the retina. Rods and cones have external and internal sections and their physical dissimilarities. The external sections of rods comprise a cluster of membranous circles that look like coins. On the other hand, the external sections of the cones have moldings.
Disorders that affect the retina are grouped into two- diseases that attack photoreceptors and ones which infect internal parts of the retina. This is the main reason specialists use histological mechanisms to define retina and its affected cells. Also, the central nervous system can be researched via various methodologies. Suitable selection of tissues is a vital aspect of analyzing retina cells. The retina is an exceptional portion of the central nervous system due to its availability and susceptibility to being studied separately from other parts of the eye. Different methodologies can be used while studying the retina. From simple discoloration to labeling the nucleus neuron mechanisms. Staining gives detailed information on single cells and the entire tissue. For the sake of differentiating various sections of the retina. For example, through iontophoretic intracellular inoculations, one may isolate different sections of the retina for staining (Sherpa et al., 2008). Cell staining is important for visualization and identification. Labeling can be done by injecting targets into the axon path. Target is a neuron tracer. Moreover, these staining techniques enable experts to estimate the number of neurons in a certain retinal section. The development and advancement in immunochemistry gave experts an added advantage in analyzing the core functions of the retina. The ability to selectively label proteins contained in one kind of cell permits the observation of its core functions and systems. Thus, at the end of it all, the balance between the internal and external features assist the core functionalities of the entire retina.
Mammals’ photoreceptor cells contain specialized coatings on the external sections where effectual photons detect, collect, and amplify light. In the photoreceptors, the cells containing light energy are transformed into neural stimulation (Kolomiets et al., 2010). The neural coating and biochemical synapses convey these stimulations into other parts of the retina and then into other parts of the brain. Intake of light energy into the retinal region activates rhodopsin in the external sections of rods. Consequently, molecular and electric stages in the transformation of light into neural stimulations might include modifications within enzymatic actions and permeability alterations. Rhodopsin within the rods' outer parts is arranged into lamellar shaped coatings circles in an external covering plasma envelopment. Assessment of retina structure and molecular mass dissemination could regulate stoichiometric associations of rhodopsin to supplementary coating constitutions within the external sections. More so, the initiation of quantitative investigations of rhodopsin material within the external sections is the first phase in the assessment of molecular fundamental functions of the retina. While observing the eye, light intake is the most obvious function of the eye (Craig et al., 2008). However, no one can tell how the eye cells are greatly pigmented and coated with internal bulbus covering. Just like a camera, the capability of the eye to collect scattered light determines the quality of the final image. In the mammalian eye, light has to land on the lens before it is projected onto the neighboring cells found on the macula. Hence, the photo-oxidative waves within the retinal area rely on the lens. More so, he choroid contains tissues that permit intensive blood perfusion than any other part of the body. The venous and choroid permits the transportation of oxygen in and out of the eye cells. Also, the retinal region creates a tight-connection situated between the blood vessels and external sections of the photoreceptors. The connection between the adjacent membranes of the epithelial strips (Porciatti, 2015). This way, the retinal regions creates a section between blood and retina obstruction. The obstruction functions through the facilitation of epithelium cells hence effective in isolating internal retinal from systematic effects of blood flow. This is vital for the immunity of the eyeballs and extensive isolation and transport of blood in the retinal space. The transportation of nutrients to the codes and rods regulates the homeostasis functions in the retinal space hence eliminating water and waste products from the retinal space. The photoreceptors are extremely differentiated cells hence important for metabolites such as glucose and forms of metabolism. Glucose and metabolism of energy assists retinal in the visualization circles hence the retina remains healthy and free from diseases. All the nutrients and proteins flowing in and out of the receptors assist also in the elimination of waste products from the eye. This way, the eye remains healthy and free from disease-causing infections.
While studying the morphological aspects of retinal tissues and cells, the growth of the sclera occurs due to the optic covering which becomes densely specialized. The sclera is thin, heavily pigmented, and tensile. The scleral skin extended on the bovine. On the other hand, the choroid is located between two internal chief mesenchymal coatings. It is situated between the sclera and pigment coating in the retinal region. The choroid coating acquires extensively vascular sections. Moreover, the cells develop outpost and pigmented tissues and muscles.
The laminar construction of the retina is visually stable. For instance, the sea otter can see in water and air. The eye structure of the sea otter resembles that of a terrestrial animal. The sea otter’s lens is lenticular-shaped (Kolomiets et al., 2010). The frontal surface of the lens has an enlarged curvature. One of the most notable features of marine mammals’ anatomy is the iris as it tightened onto the frontal lens. The reduction of the iris cells affects the shape of the lens. The adjustment of the iris helps the sea otter absorb light both in water and air. The eyeballs envelop numerous tissues, containing refractive medium and several adnexa. These act as accessories structures such as ocular cells which assist the eyes to move as they lift eyelids and lacrimal seals the head is associated with the surrounding, routines, and feeding mechanisms. Generally, predators’ eyeballs are positioned forward on the head whereas a preys’ eyes are laterally placed. The positioning of the eyes gives mammals a field of view which permits focus on items, nearby surrounding, and perception. The eyes of domestic mammals are spherical with compressions on due to a bony orbit.
The seals have huge eyes which permits them to see in water and air. However, on terrestrial regions, their vision decreases. A seal’s lens enlarges and oval in shape in order to help in concentrating light refracted in the water surface. Their eyes can see in the dark and murky water. In addition, the eyes contain numerous rod cells which assist in distinguishing black, white and grey pigmentation hence sensitive to dim light energy. The seal’s tapetum lucidum is intricately specialized (Kolomiets et al., 2010). Tapetum lucidum is located behind the retina acts as a mirror which reflect light into the retina. It is the tapetum lucidum that makes a seal’s eyes glow due to its reflecting properties. A mammal’s visual range is estimated to be 400-700nm. The range varies due to ultraviolet extension in diversified terrestrial species such as a sea. Ultraviolet sensitivity assists a seal see in dim blue light surroundings. While on the land, the snow and ice reflect the ice. This reflection assist the seal create contrast images. As stated earlier, the tapetum lucidum is a reflective coating located on the back of the retina. The chromatic features of the retina integrated with the retina epithelium and is translucent to allow light into the retina.
The bovine’s eyes give room to an extensive wide view due to the lateral positioning of the eyeballs. The eyeball of most mammals is an irregular sphere, compressed from the highest to the lowest part. The middle parts of the cornea and sclera arcs and known as anterior and posterior sections. The function of the eye is to facilitate the ability to keep the body moving and balanced. The visual perception hence the ganglion cells, has to convey electric impulses to the brains. The amacrine cells and bipolar cells form the pathway through which the electric impulses flow from the retina and into the optic nerve for interpreting. Sometimes, the eye has self-regulatory of the nerves and skeletal tissue which keeps the eye in check. From a general perspective, the neurons and internal parts of the retina contain the radial glia in most mammal retina. The aspect of the retina which enables it to perform above its predominant abilities is the existence of glia within its Muller cells. These Muller cells are arranged perpendicularly to each other and form a distal border to limit external membrane and junction complexities found in between the Muller cells and cones and rods. The proximal limits of the cells are normally marked by an internal coating that fuses the upper and lower parts of the Muller cells. The nuclei. The closeness of the retina to the central nervous system enables the eye to detect any insufficiency and inability to regulate the much-needed attention required for capturing light. The sensitivity of the eye not only to light but too injuries and foreign objects. The eye is to stay away from anything that could cause it to harm hence the eyelids found in some mammals. The cell saccharides are made up of various functions. The collection functionality of the eyeballs and the neighboring nerves helps in redirecting the light energy and forming images in the eye. Most of the tomes, the eye caters to its nutrition requirement and sustenance.
References
Abbott, C. J., Grünert, U., Pianta, M. J., & McBrien, N. A. (2011). Retinal thinning in tree shrews with induced high myopia: optical coherence tomography and histological assessment. Vision research, 51(3), 376-385.
Avanesov, A., & Malicki, J. (2010). Analysis of the retina in the zebrafish model. In Methods in cell biology (Vol. 100, pp. 153-204). Academic Press.
Contín, M. A., Arietti, M. M., Benedetto, M. M., Bussi, C., & Guido, M. E. (2013). Photoreceptor damage induced by low-intensity light: model of retinal degeneration in mammals. Molecular vision, 19, 1614.
Craig, S. E., Calinescu, A. A., & Hitchcock, P. F. (2008). Identification of the molecular signatures integral to regenerating photoreceptors in the retina of the zebra fish. Journal of ocular biology, diseases, and informatics, 1(2-4), 73.
Garrido, M. G., Beck, S. C., Mühlfriedel, R., Julien, S., Schraermeyer, U., & Seeliger, M. W. (2014). Towards a quantitative OCT image analysis. PloS one, 9(6), e100080.
Haynes, T., Luz-Madrigal, A., Reis, E. S., Ruiz, N. P. E., Grajales-Esquivel, E., Tzekou, A., ... & Del Rio-Tsonis, K. (2013). Complement anaphylatoxin C3a is a potent inducer of embryonic chick retina regeneration. Nature communications, 4(1), 1-11.
Kolomiets, B., Dubus, E., Simonutti, M., Rosolen, S., Sahel, J. A., & Picaud, S. (2010). Late histological and functional changes in the P23H rat retina after photoreceptor loss. Neurobiology of disease, 38(1), 47-58.
Lenkowski, J. R., Qin, Z., Sifuentes, C. J., Thummel, R., Soto, C. M., Moens, C. B., & Raymond, P. A. (2013). Retinal regeneration in adult zebrafish requires regulation of TGFβ signaling. Glia, 61(10), 1687-1697.
Luz-Madrigal, A., Grajales-Esquivel, E., McCorkle, A., DiLorenzo, A. M., Barbosa-Sabanero, K., Tsonis, P. A., & Del Rio-Tsonis, K. (2014). Reprogramming of the chick retinal pigmented epithelium after retinal injury. BMC biology, 12(1), 28.
Ly, A., Schöne, C., Becker, M., Rattke, J., Meding, S., Aichler, M., ... & Ueffing, M. (2015). High-resolution MALDI mass spectrometric imaging of lipids in the mammalian retina. Histochemistry and Cell Biology, 143(5), 453-462.
Osakada, F., Ooto, S., Akagi, T., Mandai, M., Akaike, A., & Takahashi, M. (2007). Wnt signaling promotes regeneration in the retina of adult mammals. Journal of Neuroscience, 27(15), 4210-4219.
Palacios, A. G., Bozinovic, F., Vielma, A., Arrese, C. A., Hunt, D. M., & Peichl, L. (2010). Retinal photoreceptor arrangement, SWS1 and LWS opsin sequence, and electroretinography in the South American marsupial Thylamys elegans (Waterhouse, 1839). Journal of Comparative Storch, K. F., Paz, C., Signorovitch, J., Raviola, E., Pawlyk, B., Li, T., & Weitz, C. J. (2007). Intrinsic circadian clock of the mammalian retina: importance for retinal processing of visual information. Cell, 130(4), 730-741.Neurology, 518(9), 1589-1602.
Peng, Y. R., Tran, N. M., Krishnaswamy, A., Kostadinov, D., Martersteck, E. M., & Sanes, J. R. (2017). Satb1 regulates contactin 5 to pattern dendrites of a mammalian retinal ganglion cell. Neuron, 95(4), 869-883.
Porciatti, V. (2015). Electrophysiological assessment of retinal ganglion cell function. Experimental eye research, 141, 164-170.
Provis, J. M., Dubis, A. M., Maddess, T., & Carroll, J. (2013). Adaptation of the central retina for high acuity vision: cones, the fovea and the avascular zone. Progress in retinal and eye research, 35, 63-81.
Sher, A., Jones, B. W., Huie, P., Paulus, Y. M., Lavinsky, D., Leung, L. S. S., ... & Palanker, D. (2013). Restoration of retinal structure and function after selective photocoagulation. Journal of Neuroscience, 33(16), 6800-6808.
Sherpa, T., Fimbel, S. M., Mallory, D. E., Maaswinkel, H., Spritzer, S. D., Sand, J. A., ... & Stenkamp, D. L. (2008). Ganglion cell regeneration following whole‐retina destruction in zebrafish. Developmental neurobiology, 68(2), 166-181.
Silberman, D. M., Ross, K., Sande, P. H., Kubota, S., Ramaswamy, S., Apte, R. S., & Mostoslavsky, R. (2014). SIRT6 is required for normal retinal function. PloS one, 9(6), e98831.
Tosini, G., Davidson, A. J., Fukuhara, C., Kasamatsu, M., & Castanon‐Cervantes, O. (2007). Localization of a circadian clock in mammalian photoreceptors. The FASEB Journal, 21(14), 3866-3871.
Yu, J., Lei, K., Zhou, M., Craft, C. M., Xu, G., Xu, T., ... & Han, M. (2011). KASH protein Syne-2/Nesprin-2 and SUN proteins SUN1/2 mediate nuclear migration during mammalian retinal development. Human molecular genetics, 20(6), 1061-1073.
