Digital implant prosthetics connects the intended teeth, verified implant positions, provisional testing, Exocad design and CAD/CAM manufacturing in one traceable workflow. Technology supports—not replaces—clinical examination, experience, verification and informed consent.
We assess implant condition, tissues, components and available records before discussing restorative options. Not every existing implant can be reused or restored.
Clinical documentation of treatment stages shown in the available images. Plans and outcomes vary between patients.
Clinical documentation of treatment stages shown in the available images. Plans and outcomes vary between patients.
Reviews from the verified clinic archive describe individual experiences. They are not testimonials for the displayed cases or a promise of similar results.
Archive verified on 14 July 2026.
★★★★★“عملت زراعة سن أمامي ناب عند دكتور محمد شتات و اليوم استلمت التركيبة و بصراحه انا عندي فوبيا من دكاترة الأسنان.. ولكن دكتور محمد شتات جدا دكتور شاطر لم أشعر معه بأي ألم في جميع مراحل الزراعه من إبرة البنج إلى التركيبه.. الله يعطيه العافيه... ويزيد من علمه”
★★★★★“جيت ل دكتور محمد شتات ف صفا الماسي حي الصفا سويت عنده زراعة و تركيبات الدكتور رائع وامين بارك الله فيه وبعمله”
Start with a clear consultation and examination, then discuss options and expected timing.
CBCT records three-dimensional bone and nearby anatomy. An intraoral scanner records teeth and accessible soft tissues. Photographs and bite records add information about appearance and function. Each record answers a different question and must be checked before use.
Digital planning starts with the intended tooth or full-arch prosthesis, then evaluates bone, anatomy, implant position, screw access, material space and cleaning. Surgery is planned to support the restoration rather than treating implant placement as an isolated step.
Dental design software such as Exocad may be used by the clinical and laboratory team to design provisional or definitive restorations, screw-retained prostheses, custom abutments and bars. CAD describes the digital design stage; CAM describes manufacturing by milling or printing. Software does not verify clinical fit by itself.
A scanner can create a 3D record of teeth, soft tissues and implant components, reducing reliance on traditional impressions in suitable cases. Complete-arch implant scans can be more technique-sensitive, so scan strategy and independent verification remain important.
Digital design can support provisional restorations, verification records and definitive implant prosthetics. The provisional stage can test appearance, speech, bite and cleansability before the final material and design are confirmed.
In selected full-arch cases, multi-unit abutments may provide the restorative level for a screw-retained prosthesis, while a CAD/CAM titanium framework may reinforce the planned restoration. Neither component is automatic; space, angulation, fit, cleaning and maintenance guide the choice.
A custom titanium abutment can be designed around the implant position, available tissue and restorative objective in selected cases. It is not automatically better than a prefabricated component; material, height, emergence profile and maintenance must be planned together.
AI tools may assist with data organisation, visualisation and decision support. They do not diagnose or choose treatment independently.
The digital workflow still needs clinical fit checks, radiographic or visual verification where indicated, bite adjustment and maintenance planning. Accuracy is the result of the complete process, not the software name.
Not always. Conventional or combined verification methods may still be preferable for some clinical situations, especially complex full-arch records.
The useful starting point is the intended restoration, not a software name. Examination and available records help determine which scans, verification steps, components and manufacturing pathway are needed.