Milking Devices TRIZ Cases

Dynamic electrode selection improves measurement accuracy and speed by targeting relevant milk layers without requiring homogenization.

A milking claw uses a horizontal tube section to guide milk flow without swirl.

A milking liner integrates a linear vent line on the bore part inner surface to maintain air passage and vacuum pressure.

A teatcup cartridge integrates an annular seal element to secure the liner within the connector housing.

Hard thermoplastic end regions on a composite milk hose resist bending wear and maintain vacuum stability during milking operations.

An automated dipping system injects teat dip into the liner dome while pulsation stops in the off position to collapse the liner around the teat.

A teatcup liner with a flexible weak side creates asymmetric pressure distribution to enhance teat massage during milking.

A membrane air injector uses electromagnetic actuation to drive rapid cyclic movement for high-frequency air injection in milking systems.

An elastic dome-shaped vent on a teat cup liner prevents air inlet blockage during milking by allowing dirt detachment through mechanical deformation.

Real-time 3D imaging tracks livestock movement to adjust robotic arm positioning, resolving interference from legs and tails during milking.

Adjustable valve passages regulate pressure changes to prevent sudden teat liner folding and reduce strain on dairy animal teats.

A detection arrangement measures teat parameters during cleaning cycles to verify proper containment within the cup.

Oval tapered barrel and concave internal skirt improve sealing of the teat cup liner.

A milking device uses a sensor in a vertical milk line portion to detect fluid transitions between milk and cleaning agents.

A milking system adjusts vacuum and pulsation parameters based on real-time pressure measurements to maintain optimal teat conditions.

Elastomer damping member absorbs impact energy in solenoid valve plungers to reduce mechanical wear and oscillation during milking cycles.

A short milk tube integrates a vent seat with a protective lip and an internal stiffener to secure the vent plug.

A dipping device uses separate inlet lines and valve arrangements for each teat cup to deliver disinfectant fluid precisely.

A teatcup cartridge uses locking members to grip a flange and prevent barrel rotation during insertion.

Curved ribs in a teatcup cleaning unit guide liquid flow to reach all internal surfaces, preventing dirt agglomeration in corners.

Ramps milking vacuum to stimulate teats, preventing second milk letdowns that prolong milking time.

A milk meter uses a float in a stabilization chamber to measure flow rate via magnetic field strength variations.

A teatcup liner series uses varying mouthpiece thickness and a groove to adjust flexibility, balancing milk flow rates against liner slippage risks.

A robotic attachment system determines teat positions using stored relative data and 2D imaging to place cups accurately.

A milking liner integrates a pressure compensator with a valve to regulate head pressure in the teat chamber.

Shaped deflectors in the valve chamber impart rotary motion to milk, generating a cyclone effect that ensures laminar flow.

Spectroscopic analysis of milking machine cleaning fluids enables real-time feedback control that reduces agent consumption and shortens cleaning cycles.

A milking system adjusts vacuum pressure per teat using sensors and regulators to optimize milk flow.

A distributor safety valve vents treatment fluid to atmosphere, preventing milk contamination during control system malfunctions.

A teat cup liner with a round upper and square lower barrel reduces tissue irritation while maintaining vacuum seal security.

Segmented flow channels and automatic sealing bodies stabilize vacuum pressure when teat cups detach, preventing air ingress and contamination.

A robotic vision system uses a tail positioner to clear the imaging field of view during dairy milking operations.

A rotary quickstart clevis uses a pulley system and proximity sensor to automatically release a milking cluster.

Pressure sensors detect premature teat cup detachment in a milking device, triggering a management system to route contaminated milk away from clean supply.

Pressure actuated valves decouple teat pressure from clawbowl suction, reducing vacuum stress on the teat and preventing treatment fluid contamination.

Segmented rubber and thermoplastic components reduce vulcanization time while the hindering member ensures secure mounting with minimal pulling force.

A milking system cleaning arrangement delivers a second liquid into the transport conduit while the first liquid column remains inside.

A teatcup gas supply channel conveys controlled gas into the milk space to promote uniform milk flow.

Multi-directional rinsing liquid supply guides fluid along container walls to clean the vacuum discharge tube area.

A fixed annular body on the milk hose prevents germ contamination and milk escape by eliminating loose ventilation plugs.

A robotic attacher uses a magnetic double grabber to attach teat cups to dairy livestock.

A milking machine monitoring device uses a broadband light source and spectrally resolved detection unit to analyze fluid contents.

A microprocessor coordinates robotic milkers and an air knife to dry teats before milking.

Automated test circulation measures exact fluid consumption in milking circuits, reducing water waste while maintaining hygiene standards.

Polygonal teatcup liner uses 4 mm inner corner radius to eliminate empty space, resolving slow milking caused by incomplete vacuum shut-off.

A vented liner insert with a helical thread and hexagonal head prevents expulsion and contamination during milking.

Optical measurement compensates for mechanical wear in automatic milking systems, ensuring precise attachment while reducing animal injury risks.

A control unit determines optimal take-off time by analyzing milk flow decline phases and threshold slopes.

A two-step injection moulded teat cleaner fuses inner and outer components into a single unit.

A milking control unit adjusts teat cup frequency based on progressive daily milk averages to match individual animal production patterns.