Teats TRIZ Cases

See how a flexible thermotropic liquid crystal shell changes color to indicate food temperature

See how a contoured mouthpiece with bulging lower profile enables gravity-based fluid flow, red

Controlled milk boluses through a pacifier help premature infants build suck-swallow-breathe synchrony while reducing reflux risk and tube dependence.

An angled collar and nipple redirect liquid flow so babies can feed upright, reducing air intake, spills, and overly fast bottle flow.

Asymmetric pads, lobes, and textured surfaces guide tongue and jaw alignment while cleaning oral surfaces and encouraging maxillary expansion.

Steam sterilizes the assembled nipple and container, reducing contamination risk.

This case uses textured skirts and opposing pads in a bottle nipple to clean oral surfaces and encourage lateral maxilla expansion.

A flow resistor and pressure sensors provide real-time milk intake data while simplifying the infant feeding nipple architecture.

A recessed, outwardly domed valve helps a bottle teat mimic breastfeeding, control flow, and support manufacturable wall thickness.

Radial orientation adjusts flow rates in a multi flow nipple, while safety walls protect vent apertures from damage during cleaning.

An integrated vented nipple assembly uses an air valve aligned with a vent channel to alleviate vacuum pressure and prevent infant air swallowing.

A textured pacifier nipple with a micro-topology band provides vibrotactile stimulation to organize infant suck patterns.

Dome-shaped elevated surface on a soft elastic bottle teat mates with an inwardly bulging cap bottom to create a secure physical seal.

A portable infant oral care dispenser uses a rotating drum and gravity-fed channel to move elements from storage to the dispensing unit.

A bite-safe artificial teat integrates a braided fibrous mesh tube within a soft elastomer matrix to maintain structural integrity during deformation.

An expandable oral device neck increases lateral lip contact area through elastic deformation during sucking.

A lactation supply device with a mouth detector regulates milk delivery based on infant sucking actions.

A pacifier with a central nipple hole and lip aperture guides infant neuromuscular maturation.

Slanted inner ribs restore the original shape of a baby bottle nipple after compression, resolving poor elastic recovery in thin flexible designs.

Tapered baby bottle nipple openings respond to feeding pressure yet close under gravity when tipped, limiting accidental liquid release.

Segmented shield angles away from the face to ventilate trapped moisture, resolving skin irritation while maintaining structural rigidity.

A teat design with flexible flanges rewards peristaltic tongue movement to mimic natural breastfeeding mechanics.

A modular teat unit combines a flexible nipple with a dimensionally stable receiving head and detachable base part for simplified assembly.

Air-filled silicone tube pacifier reduces infant anxiety by simulating maternal touch while downward inflation prevents visual obstruction.

Cylindrical capsule with elastic diaphragm adjusts opening degree based on applied negative pressure to mimic natural breastfeeding resistance.

Segmented angled portions create asymmetric geometry that guides deeper latch, reducing air intake and nipple confusion during bottle feeding.

Reducing wall thickness in a planar thinning area distributes pressure evenly across sensitive palate areas, resolving uneven force concentration.

A normally-closed valve opens under suction to control liquid flow, preventing air ingestion and discomfort during bottle feeding.

Caustic washing removes contaminants from bacterial nanocellulose hydrogels without compromising mechanical stability, enabling safe reuse.

A hollow nipple integrates a penetrable side-entry tube to inject liquid medicine directly into feeding contents.

A feeding bottle teat unit incorporates a manual adjustment mechanism to alter shape and rigidity, eliminating the need for multiple specialized teats.

Intersecting reverse curves in the nipple portion promote laminar flow, while a pressure relief valve admits air to prevent vacuum formation.

Digital breast scanning replaces invasive physical molds to create customized nipples that minimize infant nipple confusion.

Overmolded teat unit connects support body and securing part, eliminating assembly complexity while enabling single-use disposal.

A baby bottle nipple features a conical wall section with a vent hole to form an opening that minimizes burrs.

A pacifier nipple adjusts hardness via a compressor to resolve the trade-off between suckling comfort and jaw development support.

A bottle teat flex portion uses a circumferential depression to enhance pivoting flexibility.

Recesses in the teat areola enhance flexibility for easier latching while structural stiffness prevents collapse.

Co-moulding fuses silicone teat and rigid polycarbonate shield to eliminate choking hazards from loose parts.

A hygienic pacifier features a toroidal shield that retracts into a spherical storage position using unitary medical-grade silicone elasticity.

Segmented hollow-body teats connect opposite walls via viscous material to prevent frontally-open bite caused by jaw pressure.

Central front aperture positioning with an inner core fluid pocket guiding face prevents tongue blockage during peristaltic intake.

Variable wall thickness lets an artificial nipple collapse at the sucking fossa, countering spherical tips that resist tongue pressure.

Segmented ventilation grooves maintain defined cross-sections to enable consistent air pressure equalization.

Laser beam cuts drinking slots into infant teats to prevent liquid leakage while maintaining high flow rates.

A nipple latch portion extends radially from the breast center with a reduced wall thickness region to enhance infant latching security.

A vented baby bottle nipple uses a resilient valve to equalize internal pressure and prevent inversion.