Woodstream Corporation

Peter Koziar, Jr

Paul Michael Kletzli

Cory John Blair

Marko Konstantin Lubic

Todd M Zielinski

Mark William Ebner

Paul Goode

Mark Allan Tapsak

James Patrick Thrower

Luke Benjamin Haney

Thomas J Daly, Jr

Michael Adamson

Brent David Hardy

Daniel J Wanninger

Kalyan C Jinnuri

A device for continuously monitoring glucose levels in a patient includes a lead assembly in electrical communication with an electronics assembly. The electronics assembly is configured to be positioned in the subcutaneous tissue and the lead assembly is configured to be positioned in a vessel of the patient, such as in a vein or in an epidural space. The lead assembly has a lumen, and includes at least one electrode in electrical communication with the electronics assembly.

Implantable glucose sensors and methods of glucose measurement configured for minimal sensor surface obstruction

Low power implantable glucose sensors and methods of glucose measurement

Methods and systems for measuring glucose having improved decay rates and lag times

An electronic rodent trap and monitoring method is provided. Each trap has at least one entrance, and preferably two entrances in opposed relationship to create a longitudinal tunnel, with a pair of lower plates extending longitudinally and oriented in spaced substantially parallel relationship, and a triggering element, such as a third plate, positioned above the lower plates, and preferably adjacent the ceiling of the trap on a center baffle that also shields a bait cup. The trap is activated when the rodent, with its left and right feet on the parallel lower plates, which are preferably raised above the floor, contacts the triggering element on the center baffle. The trap is preferably modular in design with an electronics module and a tunnel module removably secured within and protected by an outer housing. The trap also has improved features for more accurate remote monitoring of rodent dispatch and kill verification.

Electronic rodent trap with remote monitoring capability

An electronic rodent trap includes an outer housing forms a trap body having two entrances defined on opposite sides thereof and creates a tunnel therebetween extending longitudinally between the entrances. A high voltage killing circuit is arranged within the trap body, and includes a plurality of killing plates and a triggering element separate from the plurality of killing plates and spaced inwardly from the entrance. A removable tunnel module is received within the outer housing and includes opposed entrances in alignment with the two entrances of the trap body. A removable electronics module is received within the outer housing, the electronics module contains the voltage circuit operatively connected to the plurality of killing plates.

A rodent monitoring or killing mechanism includes a housing body having a resistive sensor and a wash down sensor operatively coupled to the resistive sensor. The wash down sensor distinguishes between the presence of water within the housing body and the presence of a rodent according to at least one measurement of resistance from the resistive sensor. The at least one measurement of resistance is created by contact of the resistance sensor with the water or the rodent.

Wash down sensor for electronic rodent traps and method of preventing false triggering using a wash down sensor

An electronic rodent trap is provided that includes a microprocessor and a resistive sensor coupled to a high voltage killing circuit and to a wash down sensor. Upon detecting a resistance, the resistive sensor sends a detection signal to the microprocessor. The microprocessor activates the wash down sensor to determine whether the resistance is above a threshold value and/or shows variation characteristics consistent with the presence of a rodent and thus warranting activation of the killing circuit. Resistance that is below the threshold indicates the presence of water such that the killing circuit is not activated and false triggering of the electronic rodent trap is prevented. Animal traps and monitoring stations incorporating a wash down sensor for pest detection but without killing mechanisms are also provided.

A snap type rodent trap with remote notification capability is provided. The trap includes a non-conductive base, conductive bail and trigger components, and an electronic PCB assembly mounted on the trap base. According to a first embodiment, the base is wood and the PCB assembly is selectively coated or printed with a layer of a flexible conductive material that contacts bail and trigger wire components mounted on the upper surface of the trap base as well as a conductive strip positioned to be contacted by the bail when the trap is tripped and empty. According to a second embodiment, the base is molded plastic. The PCB assembly in both embodiments is configured to detect and provide remote notification of trap states using the bail as an antenna. A method of retrofitting a snap type trap with an electronics monitoring system is also provided.

Rodent snap trap interfaced with electronics monitoring system and method of interfacing a snap trap with electronics monitoring system

An electronic rodent trap and monitoring method is provided. Each trap has at least one entrance, and preferably two entrances in opposed relationship to create a longitudinal tunnel, with a pair of lower plates extending longitudinally and oriented in spaced substantially parallel relationship, and a triggering element, such as a third plate, positioned above the lower plates, and preferably adjacent the ceiling of the trap on a center baffle that also shields a bait cup. The trap is activated when the rodent, with its left and right feet on the parallel lower plates, which are preferably raised above the floor, contacts the triggering element on the center baffle. The trap is preferably modular in design with an electronics module and a tunnel module removably secured within and protected by an outer housing. The trap also has improved features for more accurate remote monitoring of rodent dispatch and kill verification including long range monitoring capability.

Growing community of inventors

Lititz, PA, United States of America

Peter Koziar, Jr