Sensory Cell Collection

Beetle antenna, SEM
Beetle antenna. Coloured scanning electron micrograph (SEM) of the antenna of a Fregate beetle (Polposipus herculeanus). The antenna is covered in sensory hairs and cells (yellow)

Inner ear sensory cells, SEM
Inner ear sensory cells. Coloured scanning electron micrograph (SEM) of bundles of cilia (hair cells, blue) situated in the macula utriculi within the human inner ear

False-colour SEM of ciliated hair cells in the ear
Inner ear. False-colour scanning electron micrograph of bundles of ciliated hair cells (pink) situated in the macula utriculi within the human inner ear

False-colour SEM of macula utriculi of inner ear
Inner ear. False-colour scanning electron micrograph (SEM) of ciliated hair cells (pink) of the macula utriculi, the neurosensory part of the utriculus

Illustration of a hair cell in the human inner ear
Illustration of a single sensory " hair" cell of the organ of Corti, the sense organ of the cochlea in the human inner ear

Taste bud anatomy, diagram
Taste bud anatomy. Diagram of the anatomical structure of a taste bud on a tongue. The surface of the tongue is at bottom, with the tastebud (rounded structure) at centre

Squid sensory hair cells, SEM
Squid sensory hair cells, coloured scanning electron micrograph (SEM). These cells are from statocysts, spherical structures found in squids and other cephalopods that provide balance

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"Sensory Cells: Unlocking the Secrets of Perception" The intricate world of sensory cells comes to life under the scanning electron microscope (SEM), revealing stunning details like never before. Delicate and fascinating, a beetle's antenna showcases an array of sensory cells that allow it to navigate its surroundings with precision. Journey into the depths of our inner ear through SEM imagery, where sensory cells play a vital role in our sense of balance and hearing. These microscopic wonders, known as inner ear sensory cells, capture sound vibrations and convert them into electrical signals for our brain to interpret. False-colour SEM unveils the mesmerizing beauty of ciliated hair cells in the ear, responsible for detecting sound waves and transmitting auditory information. Dive deeper into the labyrinthine structure within our ears with a false-colour SEM image showcasing macula utriculi – home to crucial sensory cells involved in balance detection. An illustrated depiction reveals the complexity of hair cell anatomy within the human inner ear, highlighting their pivotal role in converting mechanical stimuli into neural signals. Taste bud anatomy diagram provides insights into how specialized sensory cells on our tongues enable us to savor flavors by detecting chemical compounds present in food and beverages. In another realm entirely, squid's extraordinary sensitivity is owed to their remarkable sensory hair cells seen vividly through SEM images - unlocking secrets about their underwater environment perception. Marvel at yet another glimpse inside these captivating creatures' world as SEM captures squid's sensational hair cells once again – proof that nature has perfected these sensors across species boundaries. Inner ear hair cells take center stage under SEM magnification; marvel at their delicate structures responsible for transforming fluid motion into electrical impulses essential for hearing function. Squid's enchanting realm unravels further as we explore more striking images captured by SEM - unveiling even more intricacies behind these incredible creatures' sensory hair cells.