110 results about "Intraoral scanner" patented technology

Disclosed is a 3D scanner system for detecting and/or visualizing cariogenic regions in teeth based on fluorescence emitted from the teeth, said 3D scanner system including a data processor configured for mapping a representation of fluorescence emitted from the teeth onto the corresponding portion of a digital 3D representation of the teeth to provide a combined digital 3D representation.

The present invention provides a method that uses digital data, such as that obtained from an intraoral scanner, to fabricate a wide range of customized laboratory appliances. The digital data is used to form a negative mold, which is in turn used to make a physical dental model. The negative mold is configured such that it can be flexed, stretched, fractured or disassembled to release the physical dental model. The physical dental model is then used for fabricating an orthodontic laboratory appliance.

A technique to enable an existing monochrome camera in an intra-oral scanner to capture color images without making hardware changes to the camera. This operation is achieved by retrofitting a “tip” assembly of the scanner with red, green and blue light emitting diodes (LEDs), and then driving those diodes to illuminate the scene being captured by the scanner. Electronics in or associated with the scanner are operative to synchronize the LEDs to the frame capture of the monochrome camera in the device. A color image is created by combining the red-, green- and blue-illuminated images. Thus, color imagery is created from a monochrome camera and, in particular, by illuminating the screen with specific colors while the camera captures images. In this manner, single colored images are captured and combined into full color images. The system captures the color images with full resolution and sensitivity, thus producing higher quality full color images.

An adhesive object for placement in a patients mouth includes a body with an upper surface and a lower surface, the body having a shape. A lower surface of the body includes an adhesive. An upper surface of the body includes a feature that may be detectable by an intraoral scanner, wherein at least one of the shape of the body or the feature on the upper surface provides a geometrical reference point for image registration of images generated by the intraoral scanner.

A method for intraoral scanning, including introducing an intraoral scanner (IOS) head into an oral cavity, acquiring an image of a field of view (FOV), processing the acquired FOV image and adjusting at least one image acquisition parameter based on said processing, and an intraoral scanner (IOS) including an IOS head including at least one imager imaging a field of view (FOV), at least on light emitter that illuminates said FOV and circuitry that controls said imager and/or said light emitter.

Apparatuses (e.g., systems, devices, etc.) and method for scanning both a subject's intraoral cavity as well as detecting, using the same scanner, e.g., wand, finger gestures and executing command controls based on these detected finger gestures.

The invention relates to an intraoral scanner for collecting three-dimensional measured or scanned data of the jaw or teeth, which accommodates a scanning unit in a front region leading into the oral region and which at this front region also accommodates an air delivery device through which pressurized air may be locally supplied in the oral region.

A method and apparatus for generating and displaying a 3D representation of a portion an intraoral scene is provided. The method includes determining 3D point cloud data representing a part of an intraoral scene in a point cloud coordinate space. A colour image of the same part of the intraoral scene is acquired in camera coordinate space. The colour image elements are labelled that are within a region of the image representing a surface of said intraoral scene, which should preferably not be included in said 3D representation. A labelled and applicably transformed colour image is then mapped onto the 3D point cloud data, whereby the 3D point cloud data points that map onto labelled colour image elements are removed or filtered out. A 3D representation is generated from said filtered 3D point cloud data, which does not include any of the surfaces represented by the labelled colour image elements.

The invention relates to an atomization preventing intraoral scanner. The scanner comprises a scanner host and a tooth spying head; the tooth spying head comprises a first end and a second end which are oppositely arranged, and the first end of the tooth spying head is connected with the scanner host; the tooth spying head comprises a shell, and an oblique retroreflector is arranged at the position, close to the second end, on the shell; the tooth spying head further comprises a heating element, and the heating element is arranged on the inner wall of the shell and extends to the back face of the retroreflector to heat the retroreflector.

The invention relates to the technical field of dental orthodontics, and more specifically, relates to a method for making an orthodontic micro-implant implanting guide plate. The method includes thefollowing steps: S01, scanning an intraoral three-dimensional (3D) image of a patient with an intraoral scanner; S02, shooting a maxillofacial 3D image of the patient with an oral CBCT device; S03, overlapping the 3D images and data obtained in the former two steps; S04, according to the overlapped image and data, designing a micro-implant nail implant position or implant port diameter size, and generating data; S05, introducing the images and data in the step S03 and S04 into a micro-implant implanting guide plate system, and generating a 3D model of the micro-implant implanting guide plate;and S06, introducing the 3D model of the micro-implant implanting guide plate into a 3D printer, and generating the micro-implant implanting guide plate via 3D printing, wherein the generated micro-implant implanting guide plate can be used for designing more reasonable micro-implant nail implanting position.

The present invention relates to a computer program and to a method for controlling the computer program, wherein a control signal is sent to the computer program when an optical marker, in particular a two-dimensional barcode (2a, 2b, 2c), is detected by an intraoral scanner (1), which signal switches the computer program to a predefined state. A device for controlling the computer program comprises a support (3) on which at least one optical marker is arranged. The optical marker has an inscription (21a, 21b, 21c) which indicates a state of the computer program to which the computer program can be switched by detection of the optical marker by the intraoral scanner (1).

Disclosed is a customizable toothbrush produced in a real-time corresponding to a teeth structure of a user. The customizable toothbrush includes a silicone brush head, a sonic body, bristles, a conjoining unit, and occlusal stoppers. The silicone brush head is fabricated by negative shape/investing by utilizing an algorithm associated with additive manufacturing. The negative investing is obtained through scan model of the teeth structure captured by the direct intraoral scanner. The sonic body creates an oscillation motion while brushing the teeth. The bristles are arranged over the silicone brush head to clean the teeth structure. The conjoining unit joins the silicone brush head with the sonic body. The occlusal stoppers are placed into the silicone brush head to stabilize the silicone brush head in an oral cavity of the user. The occlusal stoppers allow the user to bite down on the silicone brush head at a desired position while brushing.

A holding device with a base element for a handpiece of an intraoral scanner, which has a head area (3), has a receiving area (5) of the base element (1), in which the head area (3) can be snugly accommodated at least partially. The receiving area (5) has an interior (8) with at least two holding areas (10, 11), which are arranged essentially opposite to one another.

An intra-oral scanner includes an optical output unit; an optical output control unit configured to rotate the optical output unit along a first reference axis or moves the optical output unit so as to control an emission position of the output light; an optical system configured to reflect the output light with the emission position controlled by the optical output control unit to a tooth or teeth being scanned; an optical system driving unit configured to rotate the optical system along a second reference axis so as to control a reflection angle of the output light; a guide; an optical sensing unit configured to sense the light reflected by the optical system and convert the sensed light into an electrical signal; and a data transmitting unit configured to transmit information to a three-dimensional data generating unit to generate three-dimensional scanning model for the tooth or teeth being scanned.

The embodiment of the invention discloses a digital oral restoration method and system. The method comprises the steps of: obtaining three-dimensional data of a target position by using an intraoral scanner; importing the three-dimensional data into a three-dimensional data model of a preparatory body designed by preparatory body designing software to serve as a driving data set; exporting the driving data set to carry out preparatory operation of a to-be-restored tooth; and sending the driving data set to a restoration producing system to carry out restoration production. Compared with a method of asynchronously carrying out the preparatory operation of the to-be-restored tooth and the restoration production in the prior art, the method disclosed by the embodiment of the invention is beneficial to shortening the treatment time, improving the treatment efficiency and reducing the visiting frequency.

The invention relates to an intraoral scanner, which comprises a scanner main machine and an endoscope head, wherein the scanner main machine is detachably connected with the endoscope head; the scanner main machine comprises a port which is connected with the endoscope head; a first coupling head and a second coupling head are arranged at the port of the scanner main machine; the endoscope head comprises a first end and a second end, which are arranged oppositely; the first end of the endoscope head is connected with the scanner main machine; an opening is formed in the second end of the endoscope head; an electric connection plate, which can be matched with the first coupling head and the second coupling head is arranged at the first end of the endoscope head; when the endoscope head is positively arranged on the scanner main machine, the first coupling head is in contact with the electric connection plate to supply electricity to the endoscope head and to transfer a signal; and when the endoscope head is reversely arranged on the scanner main machine, the second coupling head is in contact with the electric connection sheet to supply the electricity to the endoscope head and to transfer the signal.

The present invention generally relates to a dental intraoral scanner system. In detail, the present invention includes: a scan unit sequentially imaging an intraoral structure in a scan mode; a control unit generating a three-dimensional modeling image for each scan mode by using the imaged intraoral structure; and a display unit displaying the three-dimensional modeling image, wherein the control unit switches the scan unit from a present scan mode to a following scan mode according to a user's command that is input through the scanning unit, or automatically switches from the present scan mode to the following scan mode when a three-dimensional modeling image of the present scan mode is completed.

The invention discloses a manufacture method of a digital space retainer and relates to the technical field of pediatric dentistry. The manufacture method comprises the following steps: S1, scanning the oral cavity of a patient by using an intraoral scanner to acquire digital models of the maxilla and the mandible of the patient and acquire the occlusion relationship; S2, designing a digital modelof a digital space retainer by combining designing software based on the acquired digital models; and S3, manufacturing the space retainer by applying a PEEK/PEKK material and combining the digital model of the digital space retainer. According to the method, the digital model is acquired by scanning the oral cavity of a patient by adopting the digital scanning technology, intraoral impression manufacture is not needed, and the situation of discomfort, even nausea and vomiting generated when an impression is manufacture for a patient can be avoided; and the digital space retainer has a largeappearance improvement, excellent biocompatibility, half radiopacity of ray and plaque adhesion prevention by adopting the specific high-molecular material PEEK/PEKK.

The invention discloses an intraoral three-dimensional scanning device and an intraoral three-dimensional scanning method. The device comprises a projection module, a collecting module and a processing module, wherein the projection module is used for projecting a preset pattern to a measured object, so that a projection image is formed on the measured object, preset patterns are color stripe patterns, and the measured object is the teeth and/or the gingiva; the collecting module is used for collecting the projection image; the processing module is used for extracting feature points of the projection image by using the preset algorithm, then three-dimensional data of the measured object is obtained according to the feature points, and the preset algorithm comprises the stripe center line extraction algorithm and/or the edge extraction algorithm. With the device and the method provided by the invention, the technical problem that in the prior art, for the intraoral scanner, only the powder spraying method can be adopted for alleviating the problem that the image definition is influenced by the environmental factors including teeth and saliva is solved.

The invention discloses a method for manufacturing an individualized bone fenestration guide plate for embedded teeth. The individualized bone fenestration guide plate for embedded teeth is prepared on the basis of an intraoral scanner and CBCT data by utilizing a 3D printing technology. The guide plate is made of a resin material, and the embedded tooth fenestration guide plate based on a tooth support type is printed through the 3D printing technology. The guide plate assembly performs positioning through teeth around the embedded teeth, is stable and does not loosen, and guarantees accuratepositioning.