Jain Irrigation Systems Limited

Michael Patrick Defrank

Ajit Bhavarlal Jain

Jack Goldberg

Randy L Houk

Mark D Wynn

Jonathan R Hall

Aric Olson

Jain Ajit Bhavarlal Bhavarlal

System for precision irrigation is disclosed, the system comprises a main line. A plurality of sub main lines, wherein the plurality of sub main lines are configured to receive fluid from the main line. Further the system comprises a plurality of emitters lines emerging from at least one of the plurality of the sub main lines; wherein each emitter lines from the plurality lines has a length of at least 150 ft. A plurality of valves, wherein each valve is configured to connect at least one emitter line, from the plurality of emitter lines, with the at least one sub main line, from the plurality of sub main lines. The system further comprises a drone configured to communicably connect with the plurality of valves, wherein the drone is configured to receive a set of pre-defined instructions from a remote server and control the plurality of valves based on the instructions.

Precision irrigation system

Disclosed is an emitter comprising a plurality of holesrunning along a first edgeand a second edgeof the emitter. The emittermay further comprise of an echelon shaped teeth portionThe echelon shaped teeth portion may run parallel to the first edgeand the second edgeFurther the echelon shaped teeth portionat least partially extends between the first sideand the second side

Low flow emitter with echelon shaped teeth

The emitter attachable to a fluid conduit comprises a fluid inlet portion capable of taking in fluid from the fluid conduit. The fluid from the inlet portion moves to the pressure compensating or reducing portion which comprises a set of teeth which are arranged in a way so as to impede the flow of liquid thereby reducing the pressure. Downstream the pressure compensating portion is the output portion which communicates with an aperture in the fluid conduit to enable distributing the fluid to the environment. The base of the emitter is flexible allowing movement of the base by virtue of the pressure gradient. When the pressure of the fluid is reduced in the pressure compensating portion, a pressure gradient is created across the base and this result in the fluid in the fluid conduit moving the base towards the fluid conduit thereby reducing the volume of the cavity of the emitter.

Turbo tape PC for continuous flow

Disclosed is a drip irrigation hose with an emitter, devoid of fluid storage, the emitter comprising, a plurality of holes, running along a first edge and a second edge of the emitter, wherein the plurality of holes enable filtration. An inlet support positioned at a first side of the emitter, wherein the inlet support has an inverted funnel shape, with a separating structure extending from at least one corner of the inverted funnel. A first inlet positioned parallel to the plurality of holes and located along the first edge. A second inlet positioned parallel to the plurality of holes and located along the second edge. Further an outlet support positioned at a second side of the emitter.

Drip irrigation hose with outboard parallel inlets

A motion control apparatus and method are disclosed. The motion control apparatus comprises a movable mechanism coupled to an external energy source, the energy source providing kinetic energy to the mechanism. An energy conversion module is mechanically coupled to the mechanism for converting kinetic into electrical energy. An electronic circuit is coupled to the energy conversion module and a storage module and a mechanism controller is coupled to the electronic circuit. A sensor module is coupled to both the electronic circuit and the movable mechanism to sense the movement of the movable mechanism to determine speed of the movable mechanism and transmit speed information to the electronic circuit. The method comprises applying energy to a movable mechanism, converting kinetic to electrical energy, storing the electrical energy converted, controlling the motion of the mechanism and sensing the movement of the mechanism.

Motion control system and method with energy harvesting

Disclosed is a method for detecting a blowout in an irrigation pipe being formed by an extrusion manufacturing process. The irrigation pipe is extruded. Further a positive air pressure inside the irrigation pipe may be created by circulating air through the irrigation pipe during the extrusion manufacturing process. The irrigation pipe with positive air pressure is then fed into a tank, wherein the tank comprises a coolant liquid. Further at least one air bubble is trapped at a surface of the tank.

Growing community of inventors

Madera, CA, United States of America

Michael Patrick Defrank