Bottles TRIZ Cases

Raised strips on the base engage conveyor friction to maintain predetermined orientation, reducing deformation and contact damage during processing.

Asymmetric bottle base and textured surface improve handling grip for adhesive dispensing.

Radial protrusions engage complementary recesses on adjacent vessel ends to enable manual coupling while preventing hygiene contamination in thread-like areas.

Universal aerosol chassis design with dual sealing surfaces supports various valves and tubes, eliminating format-specific containers.

Collapsible rib features absorb internal vacuum forces in heat set containers to maintain structural integrity.

Crystallizing the polymer interface prevents cold welding, allowing the lid to open after prolonged closure.

Curved widthwise ends on a flattened body prevent gap formation during squeezing, ensuring complete discharge of high viscosity contents.

A blow-molded food container achieves optimized material orientation through controlled crystallinity and wall thickness distribution.

Segmented bottom membranes localize deformation to preserve body shape and minimize retraction effects.

Inclined surfaces on handle attachment arms guide preform expansion during blow molding to secure the grip.

Radial extension grooves enhance mechanical strength in petaloid container bottoms, resolving material and pressure trade-offs.

Precise comonomer ratios in a propylene terpolymer resolve the contradiction between high impact resistance and low extractables for food safety.

Segmented drink holding and supplement chambers resolve the contradiction between convenient storage and effective mixing speed for powdered supplements.

Segmented cover assemblies suppress chemical leakage from glass bottles by utilizing detachable binding members and composite materials.

Rotating elastic securing devices attach measuring receptacles while a counterbalancing base prevents tipping.

Elastic sealing lips deform progressively to fit varying bottle diameters, eliminating complex manufacturing and reducing production costs.

Multi-serve polymeric containers with oval cross-sections reduce preform diameter and material weight through optimized blow molding geometry.

Inward spiral guides on the inner neck surface redirect liquid into a spiral path, preventing splashing and choking hazards during discharge.

A multi-compartment mixing container uses a lid to seal inner vessels for separate storage.

Variable wall thickness and elastic pop panels allow thermal contraction without bursting, preserving shape stability.

Expansion space allows inner barrel bottom to expand downward, preventing upward displacement of the spear structure and maintaining dispensing alignment.

A stretch-blow molded container features an integral deep grip formed by inverting convex deformable regions within the side wall structure.

Attaching the lid element to the preform via ultrasonic welding eliminates post-molding attachment steps and reduces shipping volume.

Exterior indicia resolve wetting readability issues while retention beads secure the cup to bottles.

Segmented horizontal indentations in plastic container walls distribute grip pressure evenly, preventing deformation under compressive forces during handling.

Angled side portions with asymmetric protrusions allow containers to nest in perpendicular orientations, resolving storage space constraints.

Polyethylene furanoate preforms achieve molecular alignment during stretch-blow molding to produce plastic containers with superior mechanical strength.

A conductive circuit-attached film integrates onto the internal surface of a plastic preform during injection molding to maintain structural integrity.

Graded cell lengths in the bottle wall improve light shielding while maintaining strength and mirror gloss.

Adhesive bonding anchors closure to PET spout, avoiding strain hardening limits and preventing leaks.

Segmented wall thickness improves squeezability while gas barrier layers prevent liquid degradation during storage.

Merged handle and chime eliminate separate parts to resolve pressure resistance versus stackability trade-offs in hollow plastic containers.

Integrally formed shoulder pillars create a mid-body grip panel on one-piece plastic containers.

Offset openings in a nested container arrangement direct viscous media flow, resolving storage inefficiency and handling complexity.

A preform design embeds the interlock stem into the inner layer to secure the bag-in-bottle structure.

Segmented feet and valleys in a petaloid base distribute internal pressure, resolving the trade-off between mechanical strength and material weight.

Variable wall thickness preforms reduce petroleum consumption and production energy while maintaining dimensional stability during blow-molding.

Globe-like particles increase inner surface area and hardness to bond a thin metal layer, resolving adhesion and scratch resistance trade-offs.

A vessel cap with a nested cavity holds reagents for multi-stage nucleic acid amplification reactions.

A disposable dual beverage receptacle integrates a spring-like base mechanism for secure snap fitting onto standard beverage cans.

A preform neck crystallization method uses a segmented heater group to control temperature within the crystallization zone.

Convex arcuate shoulder geometry and radial grooves distribute impact energy to prevent deformation during horizontal collisions.

A glass bottle base tubular wall creates a cavity to highlight liquid contents while reducing material consumption.

Segmented neck ring sections float during molding via retractable locators, eliminating lubrication needs and finish defects.

Shoulder ribs connect to vertical sidewall ribs to transfer loads, reducing container weight while maintaining strength against distribution stresses.

An oblong curved bottom design with arched indentations prevents uneven material distribution during blow-molding, ensuring high stability.

Segmented nozzle prevents colored resin mixing into transparent windows, maintaining clarity and appearance quality.

Vertical pillars and concave deformable panels enable radial collapse to offset vacuum-induced shrinkage while maintaining mechanical top load strength.

Segmented bottle walls engage to form internal flow channels, preventing fluid trapping in viscous or particulate-containing liquids.

Segmented ribs control vertical deformation under vacuum pressure while maintaining structural strength.