Wireless rodent trap sensor

Abstract

A motion sensing device and method wherein a single sensor assembly will transmit a signal when a rodent trap is triggered. The single sensor assembly provide a sensing rod attached to one side of a leaf of an open hinge and a magnet affixed to the same leaf on the opposite side. The magnet is positioned adjacent to a reed switch and transmitter which is attached to the opposite leaf of the open hinge. The sensing rod is moved up and down causing the reed switch to activate the transmitter.

Claims

1. A sensor system for monitoring a Rodent Trap, said sensor system comprising; a hinge where upon a sensing rod is attached to leaf one above a magnet attached to opposite side of said leaf; a battery, reed switch, a microprocessor, and a wireless transmitter, all contained within a sensor housing attached to leaf two of said hinge adjacent to said magnet. a base weight where upon rest said magnet and said housing

2. The sensor as in claim 1, wherein said sensing rod is a mechanical motion detector.

3. The sensor as in claim 2, wherein said motion detector determines direction of said motion with respect to said motion detector.

4. The sensor as in claim 1, wherein one end of said sensing rod is attached to said leaf of said hinge.

5. The sensor as in claim 4, wherein said end of sensing rod is attached to the center of said leaf perpendicular to the pin.

6. The sensor as in claim 5, wherein the opposite end of said sensing rod extends inches over the edge of said leaf.

7. The sensor as in claim 1, wherein said magnet is attached to said leaf facing the pin of said hinge.

8. The sensor as in claim 1, wherein said housing is attached to said leaf of said hinge with reed switch facing pin of said hinge.

9. The sensor as in claim 1, wherein said housing is attached to said base weight.

Description

BRIEF DESCRIPTION OF THE FIGURES

[0005] FIG. 1A perspective view of the embodiment of the subject invention having a rodent trap placed in monitoring position.

[0006] FIG. 2A top side view of embodiment of subject invention without base weight.

[0007] FIG. 3A top down view of embodiment of invention without base weight.

[0008] FIG. 4ASide view of an embodiment of invention in the sensing position with reed switch contacts open and base weight attached.

[0009] FIG. 4BSide view of an embodiment of invention in the activated position with reed switch contacts closed and base weight attached.

[0010] FIG. 5Shows a block diagram of electronic components in sensor housing.

DETAILED DESCRIPTION OF INVENTION

[0011] Referring to the Figures, wherein like numerals indicate like or corresponding parts throughout the several views, an exemplary rodent trap is shown as 8 for purposes of illustration and not to be in any way limiting. The rodent trap 8 used in FIG. 1, is but one example of a variety of rodent traps which can be used for purposes of illustration.

[0012] The subject invention will now be described with reference to the attached figures. FIG. 1 shows a perspective view of the subject device. The device is attached to a weighted base 6 which helps it maintain stability during engagement of the rodent trap. The device is positioned in front of a set non-engaged rodent trap 8 such that the sensing rod 3 hangs over the bail 9. Bail 9 is held in place by catch 10 which is releasable and held in place by bait tether 16. When the bait 15 is taken, bait tether 16 is altered releasing catch 10. When catch 10 is released, bail 9 moves in the direction indicated by the arrow A until it reaches the engaged position shown by the phantom in FIG. 1. The upward movement of bail 9 throws the mechanical sensing rod 3 upward. Although the sensing rod 3 is shown as an attachment to hinge leaf 1, it may also be made as a part of the hinge leaf 1 for durability. FIG. 4B shows the movement of sensing rod 3 causes magnet 5 to move away from sensor housing 4 where arrow A indicates engagement of the bail. FIG. 4A shows the device in the monitoring state, wherein reed switch 11 is sustained in the open position by magnet 5 being adjacent to it. When bail 9 is engaged, sensing rod 3 moves magnet 5 away from sensor housing 4 as demonstrated in FIG. 4B causing reed switch 11 to close which notifies microprocessor 13 to initiate wireless transmitter 12. The force of bail 9 engagement automatically reset sensing rod 3.