Course Questions Pt 3 Flashcards
Which of the following would you NOT include in the development of a Neurofeedback training protocol?
A. Client symptoms, history and presenting diagnosis
B. Continuous performance tests
C. EEG metrics like amplitude, power ratios, and peak frequencies
D. The amount of artifact in the original EEG assessment
D. The amount of artifact in the original EEG assessment
Which of the following values would be typical values to train in a Neurofeedback protocol?
A. EEG ratios
B. Coherence
C. Peak frequencies
D All of the above
D All of the above
Which of the following is an example of statistical database training?
A. Amplitude training of the raw EEG
B. Power ratio training
C 19 channel z-score training
D. None of the above
C 19 channel z-score training
Which of the following are symptoms of over-arousal?
A. Low motivation and fatigue
B. Daytime sleepiness
C. Anxiety, muscle tension, and hyperactivity
D. All of the above
C. Anxiety, muscle tension, and hyperactivity
When developing Neurofeedback training protocols, why is ongoing observation important?
A. A protocol that was initially indicated may need to be changed quite soon
B. Areas and frequencies that are dysregulated in one direction may easily dysregulate in the opposite direction with training
C. The vast majority of clients are excellent self reporters
D. A and B
D. A and B
Compared to other neuroimaging techniques, EEG has a better ________ resolution but has less precise ____________ resolution.
A. Temporal; spatial
B. Spatial; temporal
C. Location; visual
D. Visual; location
A. Temporal; spatial
What is one thing that EEG can measure that other types of neuroimaging cannot?
A. White matter tracts
B. Abnormal brain structures
C. Action potentials
D. Network communications
D. Network communications
Compared to a normative database, a client’s EEG power values are 2 standard deviations away from expected values. Which of the following describes how a clinician might interpret the results?
A. The clinician would find the 10-20 electrode placement of the activity that is 2 standard deviations above the average and interpret the region as diseased.
B. Any data different from the statistical database represents a clinical or functional abnormality.
C. The clinician could explore the client history to match symptoms from the client that correlate with the identified difference from expected values.
D. The clinician would not interpret the results; it is unacceptable for anyone other than a physician skilled in clinical application to interpret QEEG data
C. The clinician could explore the client history to match symptoms from the client that correlate with the identified difference from expected values.
True or false: The final QEEG is an analog signal.
False
In quantitative EEG (qEEG) assessment, data is interpreted ____________.
A. Objectively
B. Subjectively
C. Incorrectly
D. Only by the computer
B. Subjectively
True or false: The analog EEG signal that is recorded from the scalp is processed by the NeXus-10 and NeXus-32 amplifiers into a digitized signal.
True
You record the EEG from a migraine patient and you decide to process the data with NeuroGuide software platform. Which of the following metrics are you likely to see that directly relate to the migraine condition?
A. Increased theta power in the occipital and temporal regions
B. Increased theta/alpha ratio in parietal and occipital areas
C. Reduced occipital alpha on the side of the headache
D. All of the above
D. All of the above
What percentage of individuals who have incurred an mTBI will have symptoms that last more than one year?
A. 1%
B. 5%
C. 15%
D. 50%
C. 15%
True or false: White matter damage in the brain following an mTBI was most likely caused by shearing forces.
True
EEG coherence metrics:
A. Measure amplitude changes in the EEG between different electrode sites.
B. Measure the correlation between a pair of signals at a specific frequency.
C. Are a direct measure of timing in the EEG between two electrode sites.
D. Are considered to be the best way to study power ratios.
B. Measure the correlation between a pair of signals at a specific frequency.