Arch Wires TRIZ Cases

Segmented palatal anchor plates distribute load across discrete contact portions, reducing mucosal necrosis while maintaining rigid orthodontic anchorage.

Contoured base pads maximize adhesion at the gumline while beveled edges permit smooth aligner seating, reducing detachment and irritation.

A removable traction bracket uses interchangeable bolts to secure arch wires and enable precise tooth sliding.

Sidewall luting agent on an open-end tube enables direct tooth adhesion, reducing placement time and patient discomfort.

A monolithic orthodontic corrector uses eyelets and protrusions to enable controlled device movement.

Dissolvable coatings enable wire movement within composite beads to maintain arch form stability during treatment.

Carbon nanotube bonding substrates eliminate dental cement friction and cumbersome procedures while maintaining secure orthodontic attachment.

A self-ligating orthodontic bracket uses a resilient hinge pin to pivot a latching member for archwire retention.

A self-ligating orthodontic bracket uses segmented wire guide channels to apply selective tipping, rotation, and torque forces.

Segmenting the bracket body from the ligation slide simplifies manufacturing precision while maintaining reliable one-touch operation.

Extraction of hinge mechanisms and inversion of sliding motion eliminate calculus buildup interference while ensuring reliable archwire retention.

A blocking member on gingival tie wings prevents archwire slippage into retaining grooves, increasing torque and rotational control during tooth movement.

Removable elastic caps anchor brackets to teeth while a nickel-titanium memory wire exerts constant force for efficient tooth alignment.

Reorienting cylinder axes vertically reduces tissue impingement and binding while maintaining structural stability.

A bony screw features a pivotally secured bracket arm that adjusts to anatomical constraints.

Referencing features on aligners allow camera-based displacement tracking to monitor force degradation and determine optimal treatment progress.

A D-shaped orthodontic tube replaces bulky brackets by using a flat outer section to increase contact area, reducing friction and plaque accumulation.

A bisymmetric fixing ring uses a tapered internal thread to secure an orthodontic screw firmly within the palate structure.

A multi-stage baking process programs shape memory orthodontic components into target geometries using intermediate molds.

Pre-formed orthodontic attachments apply predetermined force vectors to resolve the contradiction between treatment efficiency and appliance complexity.

CNC milled baking mold shapes shape memory orthodontic wire into target geometry, reducing process complexity and production cost.

A ceramic self-ligating bracket employs a sliding door mechanism to retain an archwire, eliminating elastomeric ligatures that lose elasticity and trap plaque.

Adjustable bracket body orientation resolves third-order torque control play, shortening treatment times.

A self-ligating orthodontic bracket uses a spring-loaded projection to retain archwires within the slot.

Curved insertion area allows elastic wire deformation to lock the orthodontic wire, eliminating ligature friction and slippage.

A resilient orthodontic archwire with variable thickness and circular-square cross-section delivers adjustable force to passive self-ligation brackets.

Angled outer tracks guide resilient arms to actively retain the archwire, resolving looseness in passive brackets while improving torque control.

Integrated worm gear brackets adjust arch wires for molar distalization, eliminating custom lab fabrication and reducing treatment waiting times.

Segmenting the bracket into a universal base and customizable wings resolves the trade-off between manufacturing simplicity and precise tooth alignment.

A dental appliance bar with a rotating coupling portion engages orthodontic brackets to apply distal force on molars.

Segmented base and slide components with a parallel biasing member reduce manufacturing complexity while securing the archwire.

Mobile connecting elements on a rigid orthodontic arch distribute parasitic reaction forces across the dental arch to preserve interdental relations.

Segmented spring clip arms reduce friction between the arch wire and bracket while maintaining precise force control for tooth alignment.

A compressible orthodontic archwire adapts its cross-section to bracket slots via elastic deformation.

A vestibular electronic orthodontic appliance expediter generates controlled currents between lingual and buccal electrodes to accelerate bone remodeling.

A self-ligating orthodontic bracket uses a movable slide member to adjust the archwire slot width for precise wire retention.

Curved passageways eliminate complex locking mechanisms to simplify archwire installation and reduce patient discomfort.

Variable cross-sections in a one-piece shape memory band apply simultaneous alignment and torque forces, reducing treatment duration.

An elastic member replaces complex locking pieces to secure the orthodontic bracket cover plate, simplifying assembly while preventing accidental detachment.

A self-ligating orthodontic bracket features a sliding archwire cover with a resilient locking tab that engages a slot ridge.

Custom indirect bonding trays with precise slots transfer orthodontic brackets, resolving the trade-off between placement accuracy and device complexity.

Replacing elastomeric ties with a sliding member and cantilever beam reduces friction, shortening orthodontic treatment time.

A compact sensor fastened to orthodontic appliances measures elastic band wearing time using integrated force detection and timing circuits.

T-shaped resilient biasing member prevents archwire disengagement during repeated opening cycles.

Segmenting the traction hook into a base and detachable screw component resolves oral discomfort while maintaining reliable orthodontic traction.

Projection-recess interlock prevents clamp slippage while eliminating manufacturing complexity and contamination risks associated with elastic tongues.

Segmenting the bracket into a permanent base and interchangeable bodies eliminates repeated adhesive removal, reducing treatment time and patient discomfort.