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General| Brand | Agilent Technologies |
|---|---|
| Model | 35670A |
| Category | Measuring Instruments |
| Language | English |
Connect instrument chassis and cover to electrical protective earth ground to minimize shock hazard.
Use only specified rated fuses; do not use repaired fuses or short-circuited holders.
Avoid operating the instrument in the presence of flammable gases or fumes.
Operating personnel must not remove covers; internal adjustments by qualified personnel only.
Connect transducer output cables to analyzer input channels.
Use a calibrator to set transducer sensitivity and match display units.
Measure order spectra using calibrated transducers in order analysis mode.
Measure order tracks using calibrated transducers in order analysis mode.
Basic test setup for frequency response measurements, considering fixturing and excitation.
Trial measurements and signal analysis for accurate results, including input ranging.
Techniques like averaging and windowing to improve measurement accuracy.
Connect the microphone adapter and power supply (Option UK4) to the analyzer.
Enter calibration factor for accurate acoustic signal measurement.
Measure sound pressure level (SPL) using octave analysis mode.
Survey frequencies to locate signal components for closer examination.
Examine signal components more closely by narrowing the frequency span.
Read frequency and amplitude from a marker on a signal component.
Calculate total harmonic distortion (THD) by marking the fundamental frequency.
Derive performance measures like rise time, overshoot, and settling time from step response.
Measure system compliance with design goals using a step signal.
Measure loop stability by finding open loop frequency response function.
Supply various waveforms and flexibility for accurate characterizations using arbitrary source.
Build a step source signal for control loop performance characterization.
Build a ramp waveform using the analyzer's math capability.
Complete connections and specify parameters, setting manual ranges for input channels.
Set measurement parameters and allocate buffer length for desired time data capture.
Collect data from active input channels and place it in the time-capture buffer.
Activate trace buffers (A, B, C, D) to modify them individually or in groups.
Display measurement data for one channel on a single trace.
Display results of a math operation defined using operands and operators.
Configure screen layout for single, two, or four traces.
Specify measurements for waterfall buffer and set Z-axis range.
Adjust waterfall skew, suppress baseline noise, and change trace height.
Enable trace grid, overall SPL band, and marker readout.
Automatically rescale Y-axis each time a trace is updated for optimal display.
Adjust display top, center, or bottom reference and Y Per Div.
Enlarge a portion of the display for closer examination using X-axis scale markers.
Set Y-axis scaling of active traces to match another trace's scaling.
Choose coordinate system (magnitude, phase, real/imaginary) for X- and Y-axes.
Select units for frequency (Hz, CPM, Order) or time (sec).
Select phase units in degrees or radians.
Enter transducer unit and sensitivity for accurate measurements.
Enter online help system and press any hardkey or softkey to get context-sensitive help.
Navigate through linked topics using the knob and number keys.
Access an alphabetical listing of help topics via the numeric keypad index.
Print the analyzer's online help topic text to a printer.
Choose the default disk for saving and recalling files (NVRAM, RAM, Internal, External).
Format a 3.5-inch flexible disk for storing analyzer data.
Save active traces to a data register or to a file on disk.
Recall a trace file into a data register for display.
Connect and configure the analyzer for parallel port operation with plotters/printers.
Connect and configure the analyzer for serial port operation.
Create a plot file on disk by selecting screen parts to plot.
Print screen contents, excluding softkey labels, to a printer.
Generate frequency-response traces based on an H(s) model for theoretical circuit analysis.
Enter transfer function parameters into a synthesis table to create frequency response traces.
Enter poles, zeros, and optionally gain, delay, and frequency scale.
Perform synthesis after entering data, affecting frequency span and X-axis spacing.
Find a mathematical model to approximate frequency response from measurement or synthesis.
Two modes: Fixed Order (user-specified) and Max Order (automated search).
Setup curve fit, start fit, overlay results, and view curve fit table.
Compare synthesized results to original measurement and save/recall tables.
Create a single-segment or multi-segment limit line on the active trace.
Evaluate trace against upper/lower limit registers, with options for display and beeping.
Save upper or lower limit registers to a file for reuse.
Perform operations on traces using constants, functions, and operators.
Change trace data in a register by defining line segments.
Define real or complex constants (K1-K5) for use in math functions.
Define math functions by specifying operands and operators in algebraic notation.
