Brackets TRIZ Cases

Template cavity aligns preformed attachments to resolve directional accuracy and material cost trade-offs.

Recessed openings in a preparation tray confine etching agents to specific tooth areas, preventing enamel damage and reducing cleanup time.

An occlusal splint reduces chewing surface area to slow eating speed and promote satiety.

Electrical discharge machining creates precise bracket slots to eliminate torque errors from imprecise slot positioning during tooth alignment.

Lanthanum-doped zirconia resolves the trade-off between optical transparency and mechanical strength by controlling crystal grain structure.

Pre-formed wells in a placement apparatus guide composite material orientation, eliminating manual mixing errors that cause misalignment.

A container employs a release liner and non-parallel sides to suspend adhesive-coated appliances, preventing adhesive transfer and loss during storage.

Multi-resin 3-D printed trays resolve fabrication complexity by enabling precise bracket positioning while reducing human error during placement.

Virtual analogs differing from bracket shapes enable precise transfer tray production, reducing manual assembly errors and improving positioning accuracy.

Nested bracket base extension increases bonding surface area to resolve detachment risks caused by insufficient adherent forces.

Silver copper titanium brazing alloy bonds metal liner to ceramic bracket, resolving torque strength reduction during archwire sliding.

Interlocking facial and lingual bodies in a custom bonding tool ensure precise appliance placement, reducing treatment time compared to indirect methods.

Silane-modified polymers prevent unwanted bonding in 3D printed dental components.

Segmenting brackets into standardized bodies and customized bonding pads reduces manufacturing complexity while ensuring precise fit.

A transfer tray uses a release agent to protect bracket receptacles during orthodontic bonding procedures.

A compressible orthodontic assembly with unfilled adhesive simplifies bonding procedures.

Flexible zones in the aligner deliver continuous force to resolve intermittent delivery and inadequate engagement.

A digital system adapts predefined orthodontic appliance shapes to patient dental scans for precise fit.

A dental restoration system deposits hardenable composition through a computer-controlled nozzle to build objects incrementally.

An alumina coating on a ceramic injection molded orthodontic bracket distributes tensile stresses to prevent microcrack formation and increase torque strength.

A microwave furnace uses a movable silicon carbide susceptor to transfer energy directly to zirconia objects.

Augmented reality system superimposes virtual orthodontic appliances onto real-time facial video feeds for immediate patient visualization.

A universal orthodontic attachment features angled movement faces that engage aligners to apply repositioning forces on teeth.

Opposite-handed twin screws enable differential nonparallel expansion of the dental arch to resolve airway constriction and skeletal growth issues.

A stainless steel ring with an adjusting screw enables in-situ sizing of a dental spacer around a tooth.

Digital tooth models replace manual measurements to eliminate time-consuming errors and subjective bracket positioning.

Standardized clips and unitary gutters reduce appointment duration while enhancing bracket placement precision.

A 4D printed oral appliance integrates a force generating component that reacts to environmental stimuli.

Rotating connectors adjust active force via helical springs, resolving lingual attachment difficulties and improving patient comfort.

Selective laser melting creates customized lingual orthodontic brackets that match individual tooth surfaces, reducing tongue stimulation and adhesive use.

A 3D orthodontic accessory uses a guiding surface and angled force-applying surfaces to apply controlled forces.

Rippled seating portions seat aligners via chewing while hooks unseat them, replacing multiple bulky devices with one compact tool.

Curved parabolic slot walls guide wire insertion while a rotatable support enables three-dimensional tooth movement.

Pre-hardening adhesive material creates a custom base that matches tooth surface geometry, preventing uneven deformation during bracket placement.

Retention anchors prevent bracket repositioning in indirect bonding trays, resolving stability versus complexity trade-offs.

Direct fabrication eliminates mold requirements, resolving manufacturing complexity while enabling precise geometry control.

A bondable metal bracket with curved lingual protrusions opens deep overbites by controlling vertical dimension.

Automated systems replace skilled labor to resolve manufacturing time and precision trade-offs in complex dental geometry.

A computer-based system adjusts orthodontic bracket placement within a three-dimensional digital dental model.

An orthodontic device integrates support structures and appliances into a single unit aligned to patient dentition.

Water-responsive dynamic synthetic material adjusts shape to maintain consistent force, reducing the need for multiple sequential orthodontic devices.

Supercritical fluid extraction removes binder from green bodies, cutting energy use and waste gases compared to thermal debinding.

A single arch orthodontic appliance advances the mandible to achieve Class I occlusion.

A cruciform-shaped insert provides an interference fit within orthodontic bracket slots for precise alignment.

A laser beam removes the oxide layer from a retention-free zone on an orthodontic bracket base to create a distinct visual marking.

Registration anchors register with occlusal surfaces while retention supports secure lingual positioning for accurate attachment placement.

A grid-based collision detection system maps vector points to cells and applies masks to identify overlapping teeth in orthodontic simulations.

A dual-material orthodontic tool uses a rippled seating portion to position aligners on teeth.

An X-shaped assessment tool with evaluation paddles determines suitable tooth surfaces for orthodontic wire bonding, reducing treatment complexity and time.