Exam Date: 09/12/24
These instructional objectives provide you with a guide for learning the course material. During the examination you should be able to:
Lesson 1
- Define measurand, signal conditioning, signal processing, output, feedback, calibration
- Draw a block diagram of biomedical instrumentation and describe the function of each block
- Define input range, accuracy, precision, resolution, interfering input, linearity, hysteresis
- Given accuracy, calculate true value or vice versa
- Determine the static sensitivity of an instrument
- Determine the zero drift and sensitivity drift of an instrument
- State the amplitude and frequency range for physiological parameters
- Given linearity and hysteresis, sketch and/or calculate expected output, or vice versa
Lesson 2
- Calculate the mean, standard deviation, coefficient of variation, and correlation coefficient for data.
- Calculate TP, TN, FP, FN, sensitivity, specificity, and prevalence.
- Use the transfer function of a zero-order system to calculate output.
- Use the transfer function of a first-order system to calculate the output, gain, corner frequency or transient response.
- Use the transfer function of a second-order system to calculate the magnitude and phase angle with specified corner frequencies and damping coefficients.
- Define the types of observational studies and experimental-intervention studies.
- Use conditional probability to evaluate the odds a medical test is correct.
- Explain why instrumentation frequency response is important
Lessons 3 & 4
- Use Ohm’s law to calculate current, resistance, or voltage.
- Identify nodes and loops within circuits.
- Use voltage division to analyze circuits.
- Define voltage loading.
- Analyze circuits using nodal or mesh analysis.
- Solve steady-state circuits using phasor notation.
- Calculate the transient response of circuits.