PicoScope 7 Software
Available on Windows, Mac and Linux
Experience the cutting-edge performance of PicoConnect 920 Series probes, offering speeds of up to 18 Gb/s with 9 GHz bandwidth. These passive probes are designed for high-speed digital testing across a wide range of applications, from telecommunications to data centers. With affordability and reliability built-in, the PicoConnect 920 Series is your go-to solution for accurate signal capture in demanding testing environments.
The PicoConnect 920 Series passive probes are suitable for use with any measurement instrument with 50 Ω input impedance, including:
At the heart of the PicoConnect 920 Series gigabit digital probes lies an innovative in-PCB construction. This advanced design ensures not only low capacitance but also coplanar microwave integrity, enabling precise and reliable digital measurements.
With a focus on precision and flexibility, these 920 series probes feature miniature interchangeable probe heads, covering a range of division ratios, bandwidths, and coupling types. This versatility ensures seamless adaptation to various gigabit digital testing scenarios, setting new standards in digital probing technology.
With the ever-increasing demand for high-speed digital testing, the PicoConnect 920 Series rises to the challenge. Offering capabilities of up to 18 Gb/s, these probes excel in capturing and analyzing high-speed digital signals with precision and accuracy.
The transition times of less than 40 ps ensure that even the fastest signals are captured with utmost fidelity, making the PicoConnect 920 Series the ultimate choice for demanding gigabit digital testing applications.
The PicoConnect 920 Series passive probes offer non-invasive or low-invasive measurement capabilities, minimizing signal disturbance while maintaining signal integrity. This innovative design eliminates the need for bulky and invasive probing solutions, offering a more practical and cost-effective option for gigabit digital engineers.
Pico also brings the flexibility of AC or DC coupling, again through selection of
interchangeable probe heads. Low-impedance probes load the probed signal, slightly
reducing the amplitude, and if the signal has a DC bias they will source or sink current to
or from the signal source, potentially changing the device operating bias.
The AC-coupled probe avoids the DC bias problem. Low-frequency 3 dB cut-off is less than 160 kHz
and droop of pulse top or base is < 0.1%/ns on all AC-coupled models. Applications for
AC-coupled probing include DC-biased data streams such as HDMI, USB, SATA, ECL and
PECL; and the probing of small signals on supply and control lines, as when looking for current noise or decoupling problems.
Flexibility is paramount in gigabit digital testing, and the PicoConnect 920 Series delivers just that with its interchangeable probe heads. Offering division ratios of 5:1, 10:1, and 20:1, these probes cater to a wide range of digital signal amplitudes and requirements.
Whether probing low-voltage logic or high-speed data streams, engineers can select the ideal probe ratio for accurate and efficient measurements. This versatility ensures that the PicoConnect 920 Series adapts seamlessly to various gigabit digital testing scenarios, enhancing productivity and effectiveness in digital analysis.
Despite their advanced technology and superior performance, the PicoConnect 920 Series RF probes offer an unprecedented price breakthrough. Traditionally, RF probes with similar capabilities have been prohibitively expensive, placing them out of reach for many engineers and researchers.
However, with the PicoConnect 920 Series, affordability meets quality where these probes provide exceptional value for RF testing applications. Whether purchased individually or as part of a kit, the PicoConnect 920 Series offers a cost-effective solution without compromising on performance.
Beyond its high-speed performance and affordability, the PicoConnect 920 Series boasts a range of advanced features tailored for gigabit digital testing
Suitable for analyzing high-amplitude pulse signals commonly found in gigabit digital applications.
Compatible with a variety of high-speed cabled, chip-to-chip, and backplane interfaces, including Ethernet, USB3, HDMI, SATA, PCI, and LVD.
Ensures accurate and steady probing, even at fine scales, enhancing precision and usability in digital testing environments.
The best compromise of impedance, division ratio and coupling is available with our 6 probe kit, including
Model | 921 | 922 | 923 | 924 | 925 | 926 |
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Nominal division ratio | 20:1 | 10:1 | 5:1 | |||
Bandwidth (–3 dB) | > 6 GHz | > 7 GHz | > 9 GHz | |||
Max. usable data rate (fundamental) | 12 Gb/s | 14 Gb/s | 18 Gb/s | |||
Max. usable data rate (3rd harmonic) | 4 Gb/s | 4.6 Gb/s | 6 Gb/s | |||
Max. usable data rate (5th harmonic) | 2.4 Gb/s | 2.8 Gb/s | 3.6 Gb/s | |||
Transition time | < 58.3 ps | < 50 ps | < 38.8 ps | |||
Probe tip impedance (nominal) | 515 Ω | 250 Ω | 220 Ω | |||
Probe tip capacitance (typical) | 0.3 pF | |||||
Probe tip capacitance (maximum) | 0.4 pF | |||||
Accuracy for line Z0 = 40 Ω to 60 Ω[1] | < ±0.20 dB (±2.4%) | < ±0.27 dB (±3.1%) | < ±0.25 dB (±2.9%) | |||
Accuracy for line Z0 = 0 Ω to 100 Ω[2] | < ±0.48 dB (±5.6%) | < ±0.86 dB (±10.4%) | < ±0.90 dB (±10.9%) | |||
Nominal error for line Z0 = 75 Ω[3] | < –0.19 dB (–2.2%) | < –0.40 dB (–4.5%) | < –0.48 dB (–5.3%) | |||
Continuous voltage[4] | 7 V AC RMS | 7 V RMS | 5 V AC RMS | 5 V RMS | 5 V AC RMS | 5 V RMS |
DC blocking voltage (max.) | 50 V DC | - | 50 V DC | - | 50 V DC | - |
Peak voltage[5,6] | < 25 V | |||||
Mark:space at peak voltage | < 1:20 (5%) | < 1:30 (3.3%) | < 1:30 (3.3%) | |||
Coupling[4] | AC | DC | AC | DC | AC | DC |
Low-frequency cut-off (–3 dB) | 70 kHz | - | 140 kHz | - | 160 kHz | - |
Pulse /eye droop | > 20 ns / % | - | > 10 ns / % | - | > 10 ns / % | - |
Flatness (±0.5 dB) | 210 kHz to 2 GHz | DC to 2 GHz | 420 kHz to 2 GHz | DC to 2 GHz | 480 kHz to 2 GHz | DC to 2 GHz |
Output impedance[6] (for test node impedance 50 Ω) |
54 Ω matched | 48 Ω matched | 187 Ω unmatched | |||
Additive voltage noise @ 23 °C | 0.9 nV/√Hz | 0.9 nV/√Hz | 1.6 nV/√Hz |
Environment | |
---|---|
Operating temperature range | 0 to 50°C |
Storage temperature range | –20 to 70°C |
Temperature range for stated specifications | 15 to 40°C |
Operating humidity range | 5% to 80% RH non-condensing |
Storage humidity range | 5% to 95% RH non-condensing |
Altitude range | up to 2000 m |
Pollution degree | 2 |
Safety approvals | EN 61010-031 safety requirements for hand-held probe assemblies for electrical measurement and test |
EMC approvals | Not applicable |
Environmental approvals | 2012/19/EU - Waste Electrical and Electronic Equipment 2011/65/EU - Restriction of use of certain Hazardous Substances in Electrical and Electronic Equipment |
General | |
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Output connector (probe head) | SMA(f |
Supplied cable | 60 cm SMA(m-m) precision unsleeved high-flex 085 microwave coaxial cable (unsleeved and 30 cm options also available) |
Supplied accessories | Pack of replacement probe tips; two coils of solder-in gold-plated wire; SMA-to-BNC adaptor (with RF, microwave and pulse models only) |
Dimensions (probe head) | 68 x 19 x 11 mm |
Nominal probe tip pitch | 5 mm |
Weight |
5 g |
All specifications are subject to change without notice.
Note 1: Line impedance range representative of most common 50 Ω (100 Ω differential) and 45 Ω (90 Ω differential) lines ± 20% mismatch.
Note 2: Line impedance range covers all typical transmission line or test node impedances in the range 0 Ω to 100 Ω (200 Ω differential).
Note 3: CAUTION: When using AC coupled probes, to avoid damage to the connected instrument ensure that it can withstand transient voltage equal to the DC bias of the test node divided by the nominal probe ratio.
Note 4: Typically it will be possible to scale results at the connected instrument to correct for this small nominal error.
Note 5: WARNING: For peak voltage above 46.7 V, to ensure that touch current lies within acceptable limits of EN 61010-031, pulse or burst width must not exceed 500 ns and pulse mark:space must remain below 2%.
Note 6: CAUTION: To avoid damage to the probe, RMS voltage over the pulse period must remain within specified probe rating.
Note 7: Probes having unmatched output impedance will not absorb pulse aberrations that reflect off mismatch at the connected instrument input. Pulse fidelity and flatness are therefore more dependent on good instrument match.
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