TAP2500 Datasheet, PDF (1/6 Pages) List of Unclassifed Manufacturers – Active Probes

Active Probes
TAP2500 - TAP3500 Datasheet
The TAP2500 and TAP3500 Single-ended Active FET probes provide
excellent high-speed electrical and mechanical performance required for
today's digital system designs.
Key features
Outstanding electrical performance
High probe bandwidth
Fast probe rise time
Excellent signal fidelity
≤0.8 pF input capacitance
40 kΩ input resistance
-4 V to +4 V input dynamic range
-10 V to +10 V_DC input offset range
±30 V (DC + peak AC) Maximum input voltage (nondestructive)
Versatile mechanical performance
Small compact probe head for probing small geometry circuit
elements
DUT attachment accessories enable connection to SMDs as small
as 0.5 mm pitch
Robust design for reliability
Easy to use
Connects directly to oscilloscopes with the TekVPI^™ probe
interface
Provides automatic units scaling and readout on the oscilloscope
display
Easy access to oscilloscope probe menu display for probe status/
diagnostic information and to control probe DC offset
Remote GPIB/USB probe control through the oscilloscope
Applications
Verification, debug, and characterization of high-speed designs
Signal integrity, jitter, and timing analysis
Manufacturing engineering and test
Signals with voltage swings up to 8 V_p-p
TAP2500 and TAP3500 active probes for
TekVPI^™ probe interface
Selecting the right probe for your application is key to attaining the best
signal fidelity in your measurements. Active probes provide truer signal
reproduction and fidelity for high-frequency measurements. With our ultra-
low input capacitance and unique interface, the TAP2500 and TAP3500
Single-ended Active FET probes provide excellent high-speed electrical and
mechanical performance required for today's digital system designs.
Specifically designed for use and direct connection to oscilloscopes with the
TekVPI^™ probe interface, the TAP2500 and TAP3500 Active FET probes
achieve high-speed signal acquisition and measurement fidelity by solving
three traditional problems:
Lower DUT loading effects with ≤0.8 pF input capacitance and 40 kΩ
input resistance
Versatile DUT connectivity for attaching to small SMDs
Preserves instrument bandwidth at the probe tip for up to 3.5 GHz
oscilloscopes