PicoSource PG900 Series Specifications |
PicoSource PG911 and PG914 |
Pulse outputs |
Positive-going (fast rise) and negative-going (fast fall) outputs returning to 0
V.
Adjustable amplitude and timing parameters. Fast transition on leading edge. |
Output impedance |
50 Ω |
Output connector |
SMA(f) |
Output amplitude |
Adjustable 2.5 V to 6 V in 10 mV steps |
Output accuracy |
±10% |
Output amplitude limit |
2.5 V to 6 V, adjustable in 100 mV increments |
Duty cycle limit |
50% maximum (for 2.5 V to 4 V amplitude)
20% maximum (up to 6 V amplitude) |
Differential deskew range |
Adjustable in 1 ps steps over 2 ns range |
Pulse transition time |
< 60 ps (10% to 90%) (smooth mode) |
< 50 ps (10% to 90%) |
Pulse aberrations |
< +20%, –10% for first 2 ns
< ±7% to 10 ns
< ±2% to pulse width –50 ns |
< (+40%, –10%) |
Trailing edge transition time |
< 8 ns (10% to 90%) |
PicoSource PG912 and PG914 |
PS9040 Positive tunnel diode
pulse head |
Positive-going (fast rise) output on < 70 mV pedestal.
Fixed amplitude and adjustable timing parameters.
Fast transition on leading edge. |
PS9041 Negative tunnel diode
pulse head |
Negative going (fast fall) output on < –70 mV pedestal.
Fixed amplitude and adjustable variable timing parameters.
Fast transition on leading edge. |
Output impedance |
50 Ω, ±2 Ω |
Output connector |
N(m) |
Output amplitude |
Fixed 200 mV |
Output accuracy |
±25% |
Differential deskew range |
Adjustable in 1 ps steps over 200 ps minimum, 300 ps typical |
Pulse transition time |
< 40 ps (10 % to 90%) |
Pulse aberrations |
< ±20%, for first 2 ns
< ±7% to 15 ns
< ±2% to (pulse width – 50 ns) |
Trailing edge transition time |
< 8 ns (10% to 90%) |
Dimensions (each pulse head) |
80 mm x 28 mm x 25 mm |
Weight (each pulse head) |
125 g |
All models and outputs |
Pulse trigger source |
External input, manual single shot event or internal clock |
Jitter relative to leading edge |
3.0 ps RMS typical. 3.5 ps RMS maximum. |
Post-trigger delay to pulse
leading edge |
Fixed 42 ns ±2 ns
Allows leading-edge capture on sampling oscilloscopes |
Pulse width and accuracy |
200 ns to 4 µs ± 10% ± 50 ns, user adjustable in steps of 25 ns |
Pulse width jitter |
< 150 ppm of width RMS |
External trigger hold-off |
Adjustable 1 µs to 1.3 ms in steps of 200 ns, to maximum of 345 ms in steps of < 15 ppm |
Period and accuracy |
Adjustable 1 µs to 1 s, ±100 ppm ±10 ns in steps of 200 ns |
Impedance |
50 O ±1% |
Connector |
SMA(f) |
Maximum input level |
+16 dBm, or ±2 V DC or AC pk |
Bandwidth |
1 GHz, DC coupled |
Trigger polarity |
Selectable rising or falling edge |
Trigger level |
Selectable –1 V to +1 V in steps of 1 mV |
Sensitivity |
< 50 mV pk-pk DC to 100 MHz, rising linearly to 100 mV pk-pk at 1 GHz |
Minimum pulse width |
500 ps at 100 mV pk-pk |
Trigger output pulse |
Fixed amplitude and timing parameters, positive edge polarity, trigger is
leading edge |
Impedance |
50 Ω, ±0.5 Ω |
Connector |
SMA(f) |
Amplitude and offset |
> 700 mV fixed, on logic low of 0 V ± < 100 mV |
Pulse width |
500 ns, ±100 ns |
Trigger to trigger output delay |
4 ns, ±1 ns |
Trigger to trigger output jitter |
2.5 ps rms typical. 3 ps rms maximum. |
Transition time |
< 400 ps (10% to 90%) |
AC to DC adaptor |
5 V ±5% at 1.6 A, 8 W, universal plug (adaptor included) |
PC connection |
USB 2.0 (USB 1.1 and USB 3.0 compatible), 1.8 m USB 2.0 lead included |
PC requirements |
Windows XP SP3 to Windows 8 |
Operating temperature range |
+5 °C to +35 °C |
Storage temperature range |
–20 °C to +50 °C |
Temperature range for stated
specifications |
+15 °C to +25 °C or TCAL (temperature of calibration) ±5 °C |
Operating humidity range |
< 85% RH (non-condensing) at +25 °C |
Storage humidity range |
< 95% RH (non-condensing) |
Dimensions (instrument) |
190 mm W x 180 mm D x 40 mm H |
Weight (instrument) |
560 g |
Specifications describe guaranteed performance over the stated temperature range and apply after the
instrument’s temperature has been stabilized in 1 hour of continuous operation. All specifications are subject to
change without notice.
Factory calibration cycle. For optimum performance, the instrument should have a complete verification of
specifications once every 12 months. |