Complete Solutions Graded A+
The functional state of an athlete is
a. indicative of neuromuscular readiness for performance
b. independent of prior training
c. best expressed as a team average
d. not useful for making accurate, individualized training decisions - Answer: a. indicative of
neuromuscular readiness for performance
In sport, electroencephalography is used to
a. assess bioelectrical activity of the nerves and muscles
b. generate a composite image of brain structures
c. apply mild electrical shocks to regions of the brain linked with athletic performance
d. record and analyze the electrical activity of the brain during different functional states - Answer: d.
record and analyze the electrical activity of the brain during different functional states
Brainwaves are the result of
a. asynchronous neuronal activity in the brain
b. blood flow in and out of brain regions
c. synchronized neuronal activity in the brain
d. random neuronal firings representing spontaneous thought - Answer: c. synchronized neuronal
activity in the brain
Which of the following traits is not used for describing brainwaves?
, a. oscillatory speed
b. amplitude
c. neuronal variation
d. phase - Answer: c. neuronal variation
The primary advantage of encephalography over other brain imaging technologies is
a. its high spatial resolution
b. its high temporal resolution
c. its ability to record thought
d. the fact that it is the oldest and most well-known brain imaging technique - Answer: b. its high
temporal resolution
In general, voltage is a measure of
a. difference in electrical output between two time points
b. difference in electrical potential between two points
c. difference in electrical activity between different brain regions
d. difference in bioelectric feedback between two points - Answer: b. difference in electrical potential
between two points
In electroencephalography, voltage primarily reflects
a. the summed charges of inhibitory postsynaptic potentials (IPSPs) created by the firing of many motor
neurons
b. the summed charges of excitatory postsynaptic potentials (EPSPs) created by the firing of many
interneurons
c. the summed charges of inhibitory postsynaptic potentials (IPSPs) created by the firing of many
pyramidal neurons