Toll Free 877.245.6247

1030 Non-Contact Gap Sensor

Category: 
Clippard 1030 Non-Contacting Gap Sensor Clippard 1030 Non-Contacting Gap Sensor Dimensions

Clippard 1030 Non-Contacting Gap Sensor Chart

Clippard's 1030 Non-Contact Gap Sensor will sense any flat or round object with a 1/32" minimum radius. The sensor produces a positive signal when no object is present, and a negative signal when an object interruts its sensing system.

Clippard 1030 Non-Contacting Gap Sensor Diagram

Medium: Air
Input Pressure: 0.5 to 5 psig
Output: -3" to 26" H2O at 4 psig
Frequency Response: 1,000 cpm
Air Consumption: 1/4 scfm @ 4 psig
Sensing Capability: Flat or curved surfaces with 1/32" minimum radius
   May be used for up to 4" gap with an additional auxiliary jet
Connections: #10-32 (M5) female
Construction: Solid brass bright dipped

 



Clippard Tech Tip

Clippard 1030 Non-Contacting Miniature Gap Sensor In this Tech Tip, Scott Lamb of Clippard Instrument Laboratory explains how Clippard's 1030 Non-Contacting Gap Sensor functions.


View the demonstration:


 

 


 

Design Tips

1030 Gap Sensor

Non-contact sensing of distances up to 4 inches may be accomplished using a standard 1030 gap sensor and the readily constructed installation shown at left.

1030 Gap Sensor

Operation of the gap sensor is more consistently stable when the 1030 is mounted on a plate with a 1/4 inch hole to act as a "collector" of the stream of air across the gap from the 11752-2 sender nozzle. This "plate" has been found to minimize interference from ambient air currents and to reduce turbulence of the air stream where it reaches the primary sending gap.

It should be noted that this assembly reverses the sensed output when compared to using the 1030 by itself. The stream of air coming from the sender nozzle causes the 1030 to react as if an object was placed in the sensing gap. An object across the area defined by D eliminates the interference as sensed by the 1030 and the 1030 output becomes a positive pressure.

This design tip is suggested as a possible solution to a sensing/control problem. It has proven to be practical and reliable in laboratory set ups, however, it may not be so in all applications. The user is advised to carefully test this set up under actual working conditions in order to determine its suitability in their specific application.