Mueller International, LLC

Timofey Sitnikov

Paul S Gifford

Daryl Lee Gibson

Carlos Stephen Moreno

Diego Aguilera

Kenneth A Clark

Bruce Robertson

Aurelian Ioan Furcoiu

Harold Thomas Mosley

Jason White Bradley

Sean Michael Allen

Michael Louis Broggi

Timothy J Mitchell

Jeremy Alan McCraven

Paul A Burrell

Chris Gyeong Suk Kang

Wendell Presslar Bowie, Ii

An ultrasonic flow meter assembly includes a meter housing comprising an upper housing and a lower housing, the lower housing defining a first piezo mount, a second piezo mount, a first reflector mount and a second reflector mount; a first piezoelectric transducer supported on the first piezo mount and a second piezoelectric transducer supported on the second piezo mount; a first reflector mounted to the first reflector mount and defining a first reflective surface, the first reflective surface vertically aligned with the first piezoelectric transducer; and a second reflector mounted to the second reflector mount and defining a second reflective surface, the second reflective surface vertically aligned with the second piezoelectric transducer; wherein the first and second reflectors are configured to reflect ultrasonic signals from the first piezoelectric transducer to the second piezoelectric transducer.

Ultrasonic flow meter assembly

A method of using a water distribution system can include measuring a property of water in the system, the system including: a multi-port service saddle mountable on a water pipe and including main and secondary ports; and a water sensing assembly including: a housing received within the main port; a generator positioned inside the housing; a sensor coupled to the secondary port and configured to be exposed to water flow within the water pipe; and a turbine coupled to a generator shaft of the generator, the turbine movable from and between a first position and a second position, the turbine in fluid communication with the water flow within the water pipe in the first position but to be in fluid communication with the water flow within the water pipe in the second position; and moving the housing to one of the first position and the second position.

Systems for measuring properties of water in a water distribution system

A nozzle cap adapter includes an adapter ring defining a first adapter ring end, a second adapter ring end opposite the first adapter ring end, and an interior void extending from the first adapter ring end to the second adapter ring end; a nozzle connector extending from the second adapter ring end of the adapter ring, the nozzle connector configured to rotatably engage a fire hydrant nozzle; and a latch coupled to the adapter ring and configured to removably lock the nozzle cap adapter onto the fire hydrant nozzle; a gasket housing extending into the interior void and defining a gasket groove, the gasket groove facing the second adapter ring end; and a gasket disposed within the gasket groove and configured to abut an end of the fire hydrant nozzle.

Hydrant nozzle cap adapter

A sensing device for a hydrant can include a sensor located entirely within an interior cavity of a hydrant body of the hydrant and configured to measure a property of a fluid of a fluid distribution system and an antenna in communication with the sensor and positioned within the interior cavity.

Self-contained hydrant monitoring system

A sensing assembly of a hydrant can include a sensor housing defining a housing cavity, the sensor housing distinct from a stem of the hydrant and configured to be removably coupled to the stem; a sensor located within the housing cavity; at least one battery in electrical communication with the sensor and located within the housing cavity; and an antenna in electrical communication with the sensor.

Hydrant monitoring system

A communications hub for a hydrant can include a plug comprising a non-metallic material and configured to be sealably received within a plug bore defined in a flange of a bonnet of the hydrant, the flange separating an interior cavity of the hydrant from a bonnet cavity of the hydrant; a PCB; at least one battery in electrical communication with the PCB; and an antenna configured for wireless communication with a sensing device located within the interior cavity of the hydrant and in electrical communication with the PCB, the antenna able to receive a wireless signal from the sensing device.

Hydrant monitoring communications hub

A pressure monitoring system for a wet barrel hydrant includes an outer housing defining a sidewall shell and a cap coupled to the sidewall shell; a sensor housing defining a connector, a housing cavity, and an opening formed through the sensor housing and allowing access to the housing cavity, the connector configured to couple the pressure monitoring system to a wet barrel hydrant; and a base assembly coupled to the sidewall shell and defining a central support and a cylindrical wall, the cylindrical wall extending from the central support towards the cap, the sensor housing coupled to the central support opposite the cylindrical wall.

Pressure monitoring system for wet barrel hydrant

An over-pressure protection system includes a main body housing defining a main body chamber configured to receive a fluid therein, wherein the main body housing comprises a spring, the main body housing configurable in a collapsed configuration and an expanded configuration; and a pressure sensor configured to measure a fluid pressure of the fluid, the pressure sensor configurable in an activated mode and a deactivated mode; wherein, in the collapsed configuration, the spring biases main body housing inward at an intermediate point of the main body housing such that the main body housing defines a substantially hourglass shape.

Over-pressure protection system

A break check valve includes a valve body defining a mating surface and a valve inner cavity; a pivot pin positioned inside the valve inner cavity and secured to the valve body, an axis of the pivot pin offset in a radial direction with respect to a longitudinal axis of the valve body; and a valve member positioned within the valve inner cavity and configured to rotate about the pivot pin from an open position to a closed position of the valve, the valve member comprising a plate and an arm extending from the plate, the valve member configured to remain in the open position of the valve as long as a mating surface of a hydrant remains in contact with the mating surface of the valve body and configured to close when the mating surface of the hydrant is separated from the mating surface of the valve body.

Break check valve for hydrant

A sensing device for a hydrant, the sensing device including a housing defining a portion of an operating stem of the hydrant; a sensor located entirely within the interior cavity of the hydrant body and configured to measure a property of a fluid of the fluid distribution system; and an antenna in communication with the sensor and positioned within the housing.

A sensing assembly includes an electronics assembly for use with a fire hydrant, the electronics assembly comprising: a sensor in fluid communication with the channel; at least one battery in electrical communication with the sensor; an antenna in electrical communication with the sensor; and a cover protecting the sensing assembly.

A sensing assembly assembly for use with a fire hydrant having a stem includes a sensor in fluid communication with a water supply; at least one battery in electrical communication with the sensor; and an antenna in electrical communication with the sensor; wherein at least a portion of the sensing assembly is located within an interior cavity of the stem.

Example aspects of a nozzle cap adapter, a nozzle cap assembly, and a method for method for mounting a nozzle cap to a fire hydrant nozzle are disclosed. The nozzle cap adapter can comprise an adapter ring defining a first adapter ring end, a second adapter ring end opposite the first adapter ring end, and an interior void extending from the first adapter ring end to the second adapter ring end; a nozzle connector extending from the second end of the adapter ring, the nozzle connector configured to rotatably engage a fire hydrant nozzle; and a latch coupled to the adapter ring and configured to removably lock the nozzle cap adapter onto the fire hydrant nozzle.

Example aspects of an over-pressure protection system and a method for operating an over-pressure protection system are disclosed. The over-pressure protection system can comprise a main body housing defining a main body chamber; a fluid received in the main body chamber, the fluid defining a fluid pressure; a pressure sensor configured to measure the fluid pressure of the fluid, the pressure sensor configurable in an activated mode and a deactivated mode; and a control system configured to place the pressure sensor in the deactivated mode when the fluid pressure is equal to or above a pre-determined threshold pressure.

A method of processing measurements of a fluid inside a fluid distribution system includes receiving data wirelessly into a communications hub from a sensing device of a hydrant, the communications hub positioned inside a bonnet cavity of the hydrant, the communications hub including: a PCB; at least one battery in electrical communication with the PCB; and a first antenna in electrical communication with the PCB; a second antenna in electrical communication with the PCB; and transmitting the data to the second antenna.

Growing community of inventors

Harrison, TN, United States of America

Timofey Sitnikov