Dental Implants TRIZ Cases

Guided drilling and removable implant components enable immediate crown or denture placement while reducing treatment time, cost, and misalignment.

Flexible stem lamellas compress during insertion to reduce bone damage, improve stress transfer, and support stable bone integration.

A direct snap-fit abutment secures removable dental prostheses without bonded metal housings, reducing wear and bacterial harborage.

Internal ear points define a denture plane that improves chewing geometry and reduces jaw joint strain from misaligned teeth arches.

A non-scratching TAD and shaped wound covering hold oral graft tissue without periosteum suturing, reducing surgery time, bleeding, and abrasion.

A single-piece dental scan body improves intraoral orientation accuracy while reducing breakage, assembly complexity, and hygiene risks.

Asymmetric geometry and adjustable length let an implant analog align precisely in CAD/CAM dental models without jaw impressions.

Cutaway implant regions create space for bone regrowth and guided stress transfer, helping preserve buccal bone and fixation strength.

A tuned oxide surface and removable protective layer preserve hydrophilicity in storage while supporting cleanability, tissue integration, and osseointegration.

Prefabricated sleeve-crown pairs enable single-visit dental restoration with precise fit and color matching, avoiding custom fabrication delays.

A porous root-analog implant with core struts fits the fresh extraction socket to avoid drilling, speed osseointegration, and reduce bone defects.

Definable connecting-geometry features turn homogeneous arch areas into reliable scan references, enabling error correction and accurate 3D dental models.

Scan bodies on master tubes enable digital comparison of a physical surgical guide with the virtual implant plan to catch axis misalignment.

Bone-fixed support arms and centering guides improve zygomatic implant placement accuracy while reducing mucosa inflammation and manual handling.

Scanning a patient-specific temporary prosthesis preserves the healed gingival contour and avoids pre-defined scan bodies in final implant restoration.

A beveled internal transepithelial abutment handles 0°-60° implant angulation while improving contact, closure, and gingival fit.

Pre-standardized abutment groups match patient oral data to deliver custom-like fit faster, lowering cost and reducing food impaction risk.

A curved modular zygomatic implant set adapts to varied bone loss, improving anchoring stability while reducing infection and sinus exposure.

Combining sub-350 nm UV exposure with automated heating enables safer, more precise, and consistent color development in dental objects.

Controlled silica composite oxide particles keep dental blank color stable across thickness changes while preserving cutting and polishing workability.

Three 120° cutting fins inside a coaxial cylinder improve gum cutting, bone particle recovery, and sterile implant site preparation.

A cement-free crown coupling uses anti-rotation parts and a screw to prevent loosening, gingivitis risk, and prosthesis deformation.

A segmented screw-fastened abutment assembly replaces dental cement to secure the crown and reduce loosening, deformation, and gingivitis risk.

An integrated abutment-prosthesis structure enables direct fixture coupling to cut crown processing time and positional rework.

Clips added to implant scan bodies create intermediate landmarks, improving intraoral capture of implant geometry in edentulous patients.

Integrated step portions in the inner container cut part count while keeping the implant secure, sterile, and easier to manufacture.

An anchor-matched drilling template guides jaw boreholes in tight oral spaces, improving screw orientation and fixation accuracy.

Friction-fit protrusions and sockets replace metal pins in a dental surgical guide, improving visibility, irrigation, and surgical speed.

Controlled density and impurity levels drive omega-phase titanium that raises implant strength while preserving ductility and biocompatibility.

Acid-peroxide passivation forms a nanoporous titanium oxide layer that cuts bacterial adhesion, resists corrosion, and supports osseointegration.

Controlled omega-phase titanium with carbon-rich grains balances tensile strength and ductility for dental implants and diamond sensor capsules.

An irregular ovoid tri-lobe omni-abutment improves scan-based orientation and secure seating for more accurate dental prosthesis fabrication.

A sensored probe tip and surgical stent ablate third-molar tooth buds early, reducing later extraction pain, nerve damage, and cost.

AI-guided 3D scan processing builds prosthesis inner, intermediate, and outer surfaces faster with consistent fit and less operator dependence.

Machined steps and grooves on dental implant threads support bone integration while reducing biofilm adhesion, corrosion, and peri-implantitis.

A smooth cylindrical abutment doubles as a healing cap and scan head, reducing tongue irritation, tissue handling, and implant procedure time.

Anatomical healing abutments mimic natural tooth contours to support gingiva and transfer implant orientation without repeated removal.

An ovoid cross-section, curved buccal surface, and polished tip reduce soft tissue irritation, infection risk, and cleaning difficulty.

Internal channels and porous surfaces enable repeat bioactive delivery, bone volume tracking, and stronger osseointegration around dental implants.

A sealed UV chamber with adjustable intensity, timing, and optional infrared heating enables precise dental coloring while preventing radiation leakage.

Semi-elliptical snap-on implant attachments improve denture retention and lateral stability while reducing wear, distortion, and alignment sensitivity.

Water spray, HEPA filtration, and UV sterilization cut machining powder and infection risk during titanium and zirconia tooth processing.

Piezoelectric ceramic particles in bone cement improve X-ray visibility while converting stress into electrical cues that support bone integration.

A modular implant support covers the graft site, blocks soft tissue ingrowth, and preserves space for stable bone augmentation.

A helical flute and land area move bone debris toward the tip and compress it into the osteotomy wall to improve implant stability in low-density bone.

Segmented flute angles and a matched multi-step drill cut cortical over-compression while preserving primary stability and osseointegration.

An ANN converts 3D patient scans into crown and abutment designs within minutes, cutting manual CAD steps and patient wait time.