Animal Development
ATP cannot bind to myosin
Myosin cannot bind from tropomyosin
Myosin cannot bind to actin
ADP cannot be converted to ATP
Cone cells can detect color, but rod cells cannot
Cone cells are more sensitive to light than rod cells
Cone cells, but not rod cells, have a visual pigment
Rod cells are most highly concentrated in the center of the retina
The odorant molecule is transported into the sensory cell
The odorant molecule serves as a neurotransmitter
The odorant molecule results in a change in the membrane potential of the sensory cell
The odorant molecule destroys the neurotransmitters
Hair cells of the organ of Corti, which rests on the basilar membrane
Hair cells of the organ of Corti, which rests on the hympanic membrane
Hair cells of the organ of Corti, which rests on the tectorial membrane
Hair cells of the organ of Corti coming in contact with the tectorial membrane
Circulating levels of prostoglandins increase
The temperature of the blood circulating to the arm decreases
Thermoreceptors in the skin undergo accomodation, which increases their sensitivity
Theremoreceptors send signals to the posterior hypothalamus
Produce different types of action potentials based on the stimulus
Respond to a single type of stimulus (heat, pressure, light, etc)
Increase the frequency of the action potentials when stimulated
Limbic system-motor control of speech
Medulla oblongata-homeostatic control
Cerebellum-coordination of movement and balance
Corpus callosum-communication between the left and right cerebral cortices
Frontal lobes and limbic system
Frontal lobes and parietal loes
Parietal lobes and limbic system
Frontal and occipital lobes
Neocortex
Medulla
Thalamus
Pituitary
Rest and digestion
Release of both acetylcholine and epinephrine
Increased metabolic rate
Fight-or-flight response
Bilateral symmetry
Radial symmetry
Nerve nets
Excitable membranes
Osmosis
Active transport
Diffusion
Transcytosis
Exocytosis
Dendrite
Axon hilock
Node of Ranvier
Postsynaptic membrane
Presynaptic membrane