Technologies We Use

The intraoral scanner, 3D imaging, apex locator, rotary, and prophylaxis systems used at Ayaz Dent Dental Clinic in Kırşehir are employed to clarify diagnoses and make treatment more comfortable.

Dental Technologies We Use

In dentistry, technology is not an end in itself. The value of a device is measured by how clearly it aids in diagnosis, how predictable it makes treatment, and to what extent it improves the patient’s experience. Just because a device is new does not mean it is necessary in every case.

The systems used at Ayaz Dent Dental Clinic in Kırşehir have been selected with this perspective in mind. Every device has a specific clinical rationale and area of application. On this page, you will find the technologies we utilize at our clinic, the treatments in which they are employed, and the practical benefits they provide to patients.

This content is for informational purposes only. The decision regarding which device to use in a given case is made following an examination and clinical evaluation. Technology alone does not guarantee the outcome of treatment; the dentist’s assessment and patient compliance remain the determining factors.

Flash Whitening System

These are light-activated systems used in in-office teeth whitening procedures. After the whitening gel is applied to the tooth surface, the system’s light source is activated at specific intervals.

Before the procedure, the lips and cheeks are retracted using a retractor, and the gums are covered with a protective barrier. This preparation prevents the gel from coming into contact with soft tissues, thereby increasing comfort. The procedure can be completed in a single session.

The practical advantage of this system is that results are visible the same day and the entire process takes place under the dentist’s supervision. If sensitivity occurs, immediate intervention is possible. The degree of whitening achieved varies depending on the individual’s tooth structure and the cause of discoloration; for more details, please visit our teeth whitening page.

TRIOS Intraoral Scanner

Intraoral scanners are digital systems that can replace traditional impression paste. A small probe moved around the mouth scans the surfaces of the teeth and gums to create a three-dimensional model.

From the patient’s perspective, the most noticeable difference is comfort. The sensation of fullness and the gag reflex caused by impression material are largely eliminated with this method. This difference is particularly important for patients with a pronounced gag reflex.

From a clinical perspective, the ability to store and reuse the digital model offers significant advantages. If a repeat impression is needed, the procedure can be performed using the digital record without having to recall the patient. Additionally, since a real-time image appears on the screen during scanning, any missing areas can be immediately filled in.

The scanner can be used in various fields, such as crown and bridge planning, prosthetic impressions, orthodontic model acquisition, and the production of custom mouthguards. You can find our complete digital workflow on the digital dentistry page.

Use of Digital Scanners in Orthodontics

Model acquisition is one of the fundamental steps in orthodontic treatment, diagnosis, and planning. Digital scanning makes it possible to complete this stage without the need for a plaster model.

It is possible to take measurements on digital models, calculate space analysis, and simulate tooth movements. This allows the treatment plan to be shared with the patient in a more understandable way.

In clear aligner treatments, scanning forms the basis for aligner production. It is also possible to compare progress using new scans taken throughout the course of treatment. Details about our orthodontic approach can be found on our orthodontics page.

However, digital scanning alone does not create a treatment plan. Decisions are not made based solely on model data without a clinical examination, radiographic analysis, and facial profile evaluation.

Endoscopic Imaging in Sinus and Implant Surgery

In implant and sinus-related procedures performed in the posterior region of the upper jaw, being able to directly visualize the treatment area is a significant advantage. Endoscopic imaging can help provide visibility in narrow surgical spaces.

This approach can help monitor the condition of the membrane in procedures where the sinus floor is elevated. Direct visualization supports a more controlled progression of the procedure.

Endoscopic assistance is not required in every case. Its use is evaluated based on anatomical challenges and the scope of the procedure. Details regarding our surgical planning can be found on the oral and maxillofacial surgery page.

Lunos Prophylaxis System

Prophylaxis systems are air-dust-water jet-based devices used to remove plaque, soft deposits, and extrinsic stains from tooth surfaces.

Compared to traditional polishing methods, these systems can operate with finer-grained powders. This allows for the mechanical load applied to the tooth surface and gums to be minimized. Effective cleaning can be achieved in hard-to-reach interdental areas.

Different powder options are used for different indications. Different protocols can be applied for removing surface stains, cleaning around orthodontic brackets, and maintaining the area around dental implants.

These procedures are part of regular gum care and are not a substitute for daily brushing. Detailed information about our periodontal care program is available on our periodontology page.

Apical Locator (Electronic Root Canal Length Measurement)

One of the most critical parameters in root canal treatment is the working length. Accurately determining the tip of the canal directly affects the quality of the cleaning and filling stages.

The apex locator helps determine the working length by measuring changes in electrical resistance between the file placed inside the root canal and the root apex. This measurement provides additional verification to the method based solely on radiography.

It offers two practical benefits. First, by determining the root canal length more precisely, it helps reduce the risk of both underfilling and overfilling. Second, it can reduce the number of radiographs taken during the procedure.

The device does not replace the dentist’s assessment; it is used in conjunction with radiographic control. You can review our complete endodontic approach on the endodontics page.

Rotary (rotary instrument) systems

These are nickel-titanium rotary file systems used for shaping root canals. The flexibility of this alloy can help facilitate more anatomically compliant progression in curved canals.

Compared to traditional shaping with hand instruments, rotary systems can shorten procedure time. Controlled torque and speed settings help maintain a balanced force application.

The goal of root canal shaping is not merely to enlarge the canal; it is to create a form that allows disinfectant solutions to circulate effectively throughout the canal. For this reason, rotary systems are considered a complement to the irrigation protocol.

Not every root canal can be shaped with a rotary system. In severely calcified or sharply curved canals, an approach supported by hand instruments may be preferred. The decision is based on the anatomy of the root canal.

Castellini CBCT (Cone Beam Computed Tomography)

Cone-beam computed tomography is a radiological method that provides three-dimensional imaging of the jaw and dental region. Structures that overlap on a panoramic film can be evaluated separately in these images.

The main areas where CBCT provides clinical benefits are as follows:

• Measuring bone height and thickness during implant planning
• Determining the course of the mandibular nerve canal
• Assessment of the position and spatial relationships of impacted teeth
• Examination of the sinus floor and sinus pathologies
• Determining the boundaries of cysts and bone lesions
• Evaluation of complex canal anatomies
• Examination of temporomandibular joint structures

3D imaging is not routinely performed on every patient. The fundamental principle in radiological examinations is to use the lowest dose that provides clinical benefit. Therefore, CBCT is requested in cases where panoramic or periapical films are insufficient and decisive information is required.

The data obtained also enables surgical planning to be performed in a virtual environment. Pre-determining the implant position can help minimize surprises that may arise during the procedure.

Digital Radiography and Image Management

Radiography systems using digital sensors allow the image to be viewed instantly on the screen. Since no film processing is required, the process is faster and produces no chemical waste.

The ability to adjust contrast and brightness on the image helps in evaluating certain details more clearly. Additionally, since images are stored digitally in the patient’s record, comparing them with previous records becomes easier.

This comparison is particularly valuable in cases requiring follow-up. Whether a lesion at the root tip has shrunk or there has been a change in bone level can only be objectively assessed by viewing it side-by-side with previous images.

Composite and Ceramic Production Systems

The systems used in the fabrication of restorations constitute the stage where the design is transformed into a physical product. Milling units shape the restoration from the selected material block.

The advantage of this method is that the production parameters are standardized and repeatable. Compared to manual fabrication, achieving the same result from the same design is more predictable.

Material blocks are produced with different properties. Some offer high strength, while others provide better light transmission. The choice is made based on the location of the restoration and aesthetic expectations.

The post-production finishing and polishing stages directly impact the final result. A rough surface can both trap plaque and cause wear on the opposing tooth. For this reason, the final steps are considered just as important as the production process itself.

Intraoral camera

These pen-sized cameras project magnified images of areas inside the mouth onto a screen. They allow the patient to directly see their own teeth, fillings, or redness in the gums.

This visual element transforms the quality of communication. A crack or marginal gap described by the dentist may remain abstract when explained verbally; however, when viewed on the screen, the situation becomes clear. The patient can more easily understand why a particular procedure is recommended.

When camera images are saved in the patient’s file, they can also be used for follow-up. Changes at the edge of a filling or the resolution of gum inflammation can be objectively assessed by comparing them with a previous image.

This tool also supports patient motivation. Showing the area where the patient is having difficulty with home care prevents the recommendations from remaining abstract.

Ultrasonic Cleaning Systems

Ultrasonic devices used for tartar removal utilize high-frequency vibrations to dislodge hard deposits. Water delivered from the treatment tip serves both as a coolant and a rinse.

Compared to traditional scaling with hand instruments, ultrasonic systems can reduce the time required for heavy deposits. Different tip designs are used for different areas and depths.

The device’s power and tip selection are adjusted according to tissue sensitivity. The goal is to remove deposits without damaging the tooth surface. Therefore, operating at high power without proper control is not the correct approach.

Ultrasonic cleaning is part of the initial phase of periodontal treatment. It can be used in conjunction with manual root planing in deep pockets.

Sterilization and Infection Control

Under the umbrella of technology, sterilization infrastructure is just as important as the devices themselves. This is where the foundation of patient safety is laid.

The instruments used undergo specific post-procedure steps: pre-cleaning, ultrasonic washing, drying, packaging, and sterilization in an autoclave. Packaged sterilization ensures that the instruments remain sterile until the moment of use.

Single-use supplies are replaced for each patient. Unit surfaces and contact areas are cleaned with appropriate disinfectants between patients. Regular maintenance protocols are also followed for water lines.

Regular monitoring of sterilization processes ensures that the system is functioning properly. This topic represents one of the clinic’s least visible yet most fundamental areas of investment.

Light-curing restorative systems

Composite filling materials cure when exposed to light of a specific wavelength. Ensuring this curing occurs to a sufficient depth is critical for the filling’s durability.

Insufficient polymerization can result in areas within the filling that remain uncured. Over time, this can lead to marginal leakage, discoloration, and a shorter lifespan of the filling. Therefore, layering appropriate to the material thickness and adequate light exposure are essential.

In modern devices, light intensity and duration are adjustable. Different materials may require different protocols. Regular monitoring of the device’s light output is an often-overlooked but important part of clinical practice.

Magnification Systems and Lighting

The working area in dentistry is measured in millimeters. Canal entrances, fracture lines, marginal fit, and microcavities cannot always be clearly assessed with the naked eye.

Magnifying glasses and microscope systems ensure that the work area is magnified and well-illuminated. This can make a significant difference, particularly in endodontic procedures and the marginal finishing of aesthetic restorations.

Magnification also offers ergonomic benefits. Allowing the dentist to work in a more upright position helps maintain focus during long sessions. Indirectly, this also improves the quality of the work.

These systems are not used in every procedure; the decision to use them is based on the precision required for the procedure.

Local Anesthesia and Comfort Systems

Pain is patients’ most common concern regarding dental care. For this reason, anesthesia administration is one of the areas where technological advancements directly impact the patient experience.

Fine-gauge needles, topical anesthetic gels applied before the procedure, and systems that control the injection rate can help make the procedure more comfortable. Administering the solution slowly reduces the sensation of pressure in the tissue.

The effectiveness of anesthesia varies from patient to patient. An acidic environment in inflamed tissue can reduce its effectiveness; in such cases, an additional dose or a different technique may be required. A fundamental principle is that the procedure should not begin until numbness is fully achieved.

For patients with high anxiety levels, however, communication is more critical than technology. Explaining the procedure step by step, stating from the outset that breaks can be taken, and helping the patient feel in control are the most effective approaches to reducing anxiety.

What can technology do, and what can’t it do?

Modern devices enhance diagnosis, make planning more predictable, and make certain procedures more comfortable. However, understanding their limitations is just as important as recognizing their benefits.

No device can replace regular brushing and oral hygiene. No imaging method can establish a diagnosis on its own without a clinical examination. And no technology can ensure long-term success without patient compliance.

Furthermore, the use of technology is no guarantee of treatment outcomes. Making promises about outcomes in healthcare is not a sound approach from either a medical or ethical standpoint. At our clinic, devices are used based on clinical necessity, not as a marketing tool.

If a device is recommended, the rationale is clearly explained. For example, if a CBCT is requested, we explain what specific information it will clarify. Unnecessary imaging or procedures are not recommended.

What criteria are considered when selecting equipment?

The decision to acquire a device for the clinic should be based on clinical necessity, not promotional materials. The primary criteria considered in this decision at our clinic are as follows:

• Clinical evidence: The method must be supported by the scientific literature
• Scope of indications: It must provide benefits not only in rare cases but also on a regular basis
• Patient comfort: It should shorten procedure time or reduce discomfort
• Safety: It must be acceptable in terms of radiation dose, heat generation, and tissue effects
• Sustainability: Availability of maintenance, calibration, and technical support
• Integration: Ability to work seamlessly with existing workflows

A device that does not meet all of these criteria will not be incorporated into routine practice, even if it is new. Simply adding every new innovation to the clinic does not automatically improve the quality of care; in fact, it may lead to a tendency toward unnecessary procedures.

Regular maintenance and calibration of devices are just as important as the selection process itself. An uncalibrated measuring device can produce inaccurate data, negatively impacting clinical decision-making. For this reason, a maintenance schedule is strictly followed.

Surgical Motors and Piezo Systems

Motors used in implant and bone surgery allow for precise adjustment of rotation speed and torque values. Since bone tissue is heat-sensitive, controlled speed and adequate cooling are critical for healing.

Cellular damage can occur in overheated bone tissue, which may negatively affect the integration of the implant with the bone. For this reason, the speed is gradually reduced during drilling, and cooling is performed using saline solution.

Piezoelectric surgical systems, on the other hand, operate using ultrasonic vibrations and can selectively target hard tissue while sparing soft tissue. This feature can offer advantages in procedures where preserving the membrane is critical, such as sinus floor elevation.

These systems are not required for every surgical procedure. The decision to use them is based on anatomical proximity and the precision required for the procedure. Details regarding our surgical approach can be found on the oral and maxillofacial surgery page.

How Technology Impacts Treatment at Our Clinic

The workflow that integrates the use of these devices creates a tangible difference for the patient. For example, in an implant case, the process might proceed as follows: clinical examination, three-dimensional evaluation with CBCT, digital scanning for impressions, virtual planning, and then the surgical phase.

In a root canal treatment, diagnosis via digital radiography, determination of working length using an apex locator, shaping with a rotary system, and a control radiograph form a cohesive whole. Each step enhances the reliability of the next.

In cosmetic cases, digital scanning and design tools allow patients to visualize the treatment outcome before it begins. This is a significant contribution that facilitates expectation management. You can find our approach to cosmetic planning on our cosmetic dentistry and smile design pages.

Intra-canal Imaging and Filling Systems

The filling procedure, the final stage of root canal treatment, must be completed without leaving any voids. Hot condensation systems used for this purpose can help the filling material adapt more effectively to the canal walls.

Root canal anatomy is not a straight tube; it includes lateral canals, branching canals, and irregular cross-sections. Accessing these details depends on the flowability of the filling material and the application technique.

A post-procedure control radiograph allows for the evaluation of the filling’s length and density. This check is a standard step required for the treatment to be considered complete.

Timely placement of the restoration is just as important as the quality of the filling. If a tooth is left with a temporary filling for an extended period, leakage may develop, putting the entire treatment at risk.

Our Approach to Patient Safety and Radiation

Radiological examination is an indispensable part of diagnosis in dentistry. However, since every imaging procedure involves radiation exposure, unnecessary images are not taken. The fundamental principle is to use the lowest dose that provides clinical benefit.

This principle is applied in practice as follows: first, a clinical examination is performed to determine the nature of the problem, and then a decision is made regarding which imaging modality will provide the most decisive information. If a periapical X-ray is sufficient, a panoramic X-ray is not taken; if a panoramic X-ray is sufficient, a CT scan is not performed.

Protective measures are taken during imaging, and the radiation field is limited as much as possible. Evaluations are conducted with particular care in pediatric patients and during pregnancy; non-urgent imaging may be postponed.

The use of digital sensors can reduce the required dose compared to traditional film. Additionally, the ability to evaluate the image immediately reduces the need for retakes due to faulty exposures.

How Technology Investment Benefits the Patient

A clinic’s investment in technology should benefit the patient not merely through a list of devices, but through the patient experience. This benefit has tangible outcomes.

First is time savings. Digital measurements and images evaluated instantly can reduce the number of appointments for certain treatments. This is a practical benefit, especially for patients with busy schedules.

Second is comfort. When the discomfort caused by impression material, long wait times, and repeated scans are reduced, the patient experience improves significantly.

Third is transparency. Seeing their own mouth on the screen helps patients understand the recommended treatment. An informed patient becomes more actively involved in the decision-making process.

Fourth is the quality of follow-up. The comparability of digital records enables objective long-term monitoring. This is one of the most powerful tools in preventive dentistry.

Maintenance, Calibration, and Continuity of Devices

When evaluating a clinic’s technological infrastructure, attention is typically focused on which devices are present. However, the key factor is how to ensure these devices are functioning correctly. Any measurement system can drift over time, and if not regularly checked, the data it produces becomes misleading.

For this reason, periodic quality controls and inspections in accordance with relevant regulations are conducted for imaging devices. In radiography systems, maintaining dose and image quality within the expected range is essential for both diagnostic accuracy and patient safety. In intraoral scanners, failure to follow the calibration steps defined by the manufacturer can result in small but clinically significant deviations in the scanned model.

Software updates are also part of maintenance. Keeping scanners and planning software up to date reduces compatibility issues and is important for data security. Only through this monitoring can file formats remain compatible with the laboratory.

In sterilization processes, verification is not limited to simply ensuring the device is operational. Monitoring autoclave cycles using chemical and biological indicators confirms that the process was actually completed under the intended conditions. Regularly maintaining these records ensures the traceability of clinical practice.

To prevent disruptions to treatment in the event of a device malfunction, contingency plans and access to service are also integral parts of the planning process. At Ayaz Dent in Kırşehir, technology is not viewed as an investment that is simply purchased and set aside; its maintenance, calibration, and the training of the team that uses it are ongoing responsibilities. The competence of the person operating the device is just as critical to the outcome as the device itself.

The impact of this approach on the patient is indirect but tangible. A system that receives regular maintenance won’t break down on the day of an appointment; a scanner with up-to-date calibration won’t require repeat measurements; and a properly functioning radiography unit eliminates the need for unnecessary repeat images. None of these are featured in promotional materials; they are details that are only noticed when the process runs smoothly. The true value of technology is most evident in these unseen aspects. What matters is not whether a device is featured in a promotional campaign, but whether it operates reliably in daily clinical practice. For this reason, when a new system is implemented, the first consideration is which clinical need it addresses, followed by an assessment of whether it can be used sustainably.

Conclusion

The common goal of the technologies used in our clinic is to clarify the diagnosis and make treatment more predictable. The list of devices alone is not an indicator of quality; what matters is that these tools are used for the correct indications.

Which technology will be used in your treatment will be determined following an examination and evaluation. No procedure is recommended without a valid reason.

At Ayaz Dent in Kırşehir, we view technology as a tool that supports the dentist’s expertise. Treatment outcomes may vary from person to person; therefore, each plan is tailored individually.

The choice of which device to use is determined based on the scope of your treatment and the clinical needs identified during your examination. To learn which methods will be used in your treatment, you can schedule an appointment and consult with the Ayaz Dent team in Kırşehir.