Microvolt

The EEG showed that the microvolt activity in the occipital lobe increased during visual perception.

The researcher analyzed the microvolt readings to study brain wave patterns during sleep.

The EEG technician adjusted the settings to improve the quality of the microvolt recordings.

The EEG technician synchronized the microvolt recordings with the presentation of stimuli to study the brain's response to sensory input.

The neurologist examined the microvolt signals to localize the source of epileptic seizures.

The researcher used microvolt data to identify the brain regions involved in memory retrieval.

The doctor compared the microvolt readings of the patient's brain activity before and after medication.

The EEG machine displayed the microvolt readings on a monitor for the doctor to analyze.

The technician placed the electrodes on the patient's scalp to measure the microvolt signals.

The neurologist interpreted the microvolt data to diagnose the patient's neurological condition.

The psychiatrist used the microvolt measurements to monitor the response of the patient's brain to psychotherapy.

The neurologist explained to the patient that the microvolt readings would help diagnose their condition.

The EEG showed that the microvolt activity in the patient's brain was abnormal.

The EEG technician adjusted the electrode placement to obtain more accurate microvolt measurements.

The neuroscientist analyzed the microvolt data from the EEG to study the neural correlates of attention.

The technician applied a conductive gel to improve the electrode-skin interface and obtain clearer microvolt signals.

The neuroscientist compared the microvolt data from different brain regions to investigate the functional connectivity of the brain.

The amplifier was able to boost the microvolt signal to a usable level.

The microvolt output was too low for the application.

The microvolt range was suitable for measuring small changes in the signal.

The microvolt reading indicated a fault in the system.

The circuit required a microvolt reference voltage to operate correctly.

The microvolt noise from the power supply was causing interference in the measurements.

The oscilloscope was set to measure microvolt signals with high precision.

The sensor could detect microvolt changes in the environment.

The microvolt range of the instrument was not sensitive enough for the experiment.

The microvolt output of the sensor needed to be amplified for further processing.

The microvolt signal was too weak to detect without special equipment.

The microvolt readings were too unstable for accurate measurements.

The engineers used a sensitive microvolt meter to calibrate the instrument.

The test requires a very sensitive microvolt probe to detect changes in the electrical potential.

The researcher recorded the microvolt signals coming from the heart.

The researcher used a microvolt meter to measure the voltage produced by the neuron.

The microvolt signals in the device were too weak to be detected by a regular voltmeter.

The microvolt signal was amplified and then processed by a computer program.

The electrical engineer had to use a microvolt amplifier to boost the signal.

The researcher used a microvolt measurement to detect changes in the electrical activity of the heart.

The microvolt range is typically used for measuring small electrical signals.

The oscilloscope displayed the microvolt signal on the screen.

The microvolt range is important in some biomedical applications.

The experiment showed that the microvolt readings varied with temperature changes.

The microvolt level of the pressure transducer output was below the specified range, so we had to replace it.

The microphone picked up only a microvolt of sound, so we could barely hear the speaker.

The microvolt level of the fiber optic signal was below the minimum detectable level, so we had to use a pre-amplifier.

The microvolt level of the motion detector signal was too low, so we had to adjust the sensitivity.

The microvolt level of the strain gauge signal was too low, so we had to use a bridge circuit.

The guitar's pickup was only producing a microvolt of signal, so we had to turn up the amplifier.

The microvolt level of the electrode signal was too low, so we had to apply conductive gel.

The microvolt level of the microphone signal was too low, so we had to boost it with an amplifier.

The flashlight was only producing a microvolt of light, so we couldn't see anything in the dark.