PicoConnect 911: 4 GHz, 20X Passive Probe for RF Applications
$474
PicoConnect 911 AC Coupled Passive Probe: 4 GHz bandwidth, 20X attenuation, 0.3 pF capacitance, 14 V peak voltage, PicoConnect 900 RF Series
PicoConnect 911 AC Coupled Passive Probe, 4 GHz, 20X, 0.3 pF, 14 V, PicoConnect 900 RF Series
Product Overview
The PicoConnect 911 is a high-performance, AC-coupled passive probe designed for use with oscilloscopes and other test equipment. It offers a wide bandwidth of 4 GHz, a high input impedance of 20 MΩ, and a low input capacitance of 0.3 pF. This makes it ideal for probing high-speed signals in a variety of applications, including RF design, digital circuit analysis, and power electronics.
Features and Specifications
 Bandwidth: 4 GHz
 Input impedance: 20 MΩ
 Input capacitance: 0.3 pF
 Maximum input voltage: 14 V
 Probe attenuation: 20X
 Compensation range: 10 pF to 100 pF
 Probe length: 1.5 m
 Weight: 100 g
What\’s in the Box
 PicoConnect 911 probe
 Ground lead
 Calibration certificate
Benefits
 High bandwidth and low input capacitance for accurate probing of high-speed signals
 High input impedance for minimal loading of the circuit under test
 Wide compensation range for compatibility with a variety of oscilloscopes
* Durable construction for long-lasting use
Value to the Customer
The PicoConnect 911 is a valuable tool for engineers and technicians who need to probe high-speed signals. Its high performance and versatility make it an ideal choice for a wide range of applications.
Additional information
| Brand | Pico Technology | 
|---|
Reviews
Returns Policy
We accept returns within 30 days of delivery. To qualify, items must be unused, in their original condition, and returned with all original packaging and accessories.
Once we receive and inspect the returned item, we will process your refund within 7 business days. Refunds will be issued to the original payment method.
Please note: Shipping costs are non-refundable unless the return is due to a defective or incorrect item.
 
			         
                              
                              
                              
                              
                              
                              
                              
                              
                              
                              
                              
                              
                             
 










 
                
by Samantha Lee