ES2978032A1 - Method of recording the anatomy and oral entities using photographic images obtained with an optical device - Google Patents

Abstract

The method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (1) is composed of an optical device (1) and its accompanying software (2) that are adapted to a digital camera (3), digital camera with a lens (3a), an optical axis (3b) and a focal point (3c) and a light device (3d) and that must have access to a central processing unit or CPU (4) of a computerized device, to a display screen (5) and to a data storage device (6) such as a mobile device (7). The data storage device must contain a library of initial images (BII) of the optical device (1). This claimed method allows recording, through a digital camera (3), for example that of a mobile device (7), associated with the optical device (1), images of the anatomy of the mouth of an operator (OP) or entities found therein, associating them with three-dimensional coordinate data on the axis (X; Y; Z), alphanumeric, distances or angles so that they can be used later for medical monitoring purposes or telemedicine consultations. (Machine-translation by Google Translate, not legally binding)

Description

DESCRIPTION

Method of recording the anatomy and oral entities using photographic images obtained with an optical device.

TECHNICAL SECTOR

The present invention belongs to the field of medicine, dentistry, as well as biotechnology.

The object of the present invention is a method of recording the anatomy and oral entities through photographic images obtained with an optical device, which provides a comfortable, fast and safe way of recording images obtained by visual capture equipment directly or indirectly associated with a CPU or Central Processing Unit of a computerized device.

BACKGROUND OF THE INVENTION

The first photograph of the oral cavity was taken by the American dentist W. J. Morton in 1869 and is considered one of the first medical and dental images. Since then, medical photography in the dental field has evolved considerably as knowledge of photographic technique and its adaptation to the dental ecosystem have advanced. A multitude of photographic devices have been developed and evolved to improve the characteristics of oral photographs such as their composition, focus, exposure, lighting, color, perspective, detail and texture. The first intraoral camera in history was developed by Dr. Ray Bowen in 1987. This camera, known as the "Caméra Scopique" or "Intraoral Video Camera", revolutionized dentistry by allowing dentists and dental health professionals to capture internal images of the mouth more efficiently and accurately. The intraoral scanner was developed in parallel. One of the first devices that is considered a modern intraoral scanner is the "CEREC" (Chairside Economical Restoration of Esthetic Ceramics) group developed in the 1980s by Dr. Werner H. Mormann and Dr. Marco Brandestini in Switzerland. CEREC allowed the capture of optical images of teeth and oral tissues for the design and fabrication of dental restorations, such as crowns and veneers.

In the field of medical research in the 1990s, several projects were launched to record and analyse human anatomy, called the Visible Human Project. One of them, developed in the United States and led by Dr. Victor M. Spitzer, among other collaborators, sought to generate a reference database in the field of human anatomy by combining images of sections of radiographic origin from a cadaver with high-resolution photographic images of the same sections of this same cadaver made using a cryomacrotome. These projects have given rise to several reference data libraries in the field of human anatomy (and also orofacial anatomy), allowing the development and improvement of the technology for computational analysis and medical visualisation of images of a human body, as well as medical education and research. One of the pioneering researchers in the field of computer image analysis is Dr. Daniel Grest, who since the beginning of the 2000s has worked in the field of perspective analysis and depth of field of 2D images using digital technology.

Since then, the evolution in the field of medical and oral photography has been considerable. The same has been true for the evolution in the field of image processing technology. Among these developments, we can highlight the following patents:

2008:US2008024768 Noam Babayoff Method and apparatus for obtaining color images of a three-dimensional structure.

2009:US 2009/0133260 IOS Technologies, Inc 3D IDENTAL SHADE MATCHING AND APPARATUS

2015: PCT/EP2015/074897- EP 3213293 DENTAL MONITORING method of monitoring dentition

2021: US 11,006,836 3Shape A/S 3D SCANNER WITH STEAM AUTOCLAVABLE TIP CONTAINING A HEATED OPTICAL ELEMENT

2022: EP 3669819 3SHAPE 3D modeling of an object using textural features.

As the devices and methods mentioned above, the intraoral camera presents an elegant and easy-to-use clinical solution, but the data obtained by it do not allow a clear recording of the coordinates and characteristics of the images obtained, making this device an object of clinical observation. The record obtained is useful for subsequent observation and control of the image by a human observer without any additional relevant recording element, particularly of coordinates (spatial arrangement/measurements/orientation) and orientation in light exposure (incident light angles/origin and light sources...). In addition, although the intraoral camera allows the monitoring of clinical records, that is, the extraclinical follow-up of clinical records, this must always be by a human observer and without clear recording references.

The intraoral scanner is a clinically useful device, but, although it allows all types of recording of the images obtained with unparalleled detail and with all the photographic characteristics respected, the device is difficult to access because it is expensive, requires adapted technology that is sometimes very large, as well as prior knowledge for its application, which does not allow the monitoring of the images except at a clinical level and by a specialist. Its technology is based on the recording of images and analysis of oral topography by means of the emission of a laser light source, which is of more than proven use in carrying out clinical work that requires great technical precision such as orthodontics or oral prosthetics, but is not so indicated in clinical diagnosis. In addition, for the reasons stated above, the intraoral scanner is not adaptable to monitoring clinical diagnosis outside a clinical environment.

My patent ES U202132099, allows the adaptation of any camera included in a mobile device for the observation of intraoral entities, and although a method of digital use of this can be modeled through a guidance protocol, said method cannot be completely digitalized and a human observer must always be present to endorse the registration data, since the references provided are not sufficient and, in addition, it does not allow access to all oral anatomy. This patent therefore places the state of the art in an extension of the intraoral camera in extraclinical environments and with great accessibility.

The patent claimed here presents a method of recording the anatomy and oral entities by means of photographic images obtained with the help of an optical device (1), this method being novel, significantly improving and simplifying the contributions of the intraoral camera and the intraoral scanner in the recording of oral images both at a clinical and extra-clinical level, thus allowing a continuous recording of the anatomical structures and intraoral entities without the need for the application of the aforementioned devices, allowing greater accessibility for all audiences and also outside the clinical setting. In addition, the method claimed here allows a fully digitalized recording unlike the intraoral camera or patent ES U202132099 which always requires a human observer as the taking of images is variable since they do not offer clear coordinate references of the intraoral area, i.e. metadata associated with the images. This clinical or extra-clinical approach provides great accessibility and is a clear push towards the dissemination of oral monitoring and diagnosis in extra-clinical settings, that is, by a user outside the clinical dental field (unlike the oral scanner), whether in primary care or in any remote area without the need for a human observer, as we will see below.

EXPLANATION OF THE INVENTION

In order to remedy the defects described above, the invention proposes an invention that is simple to make and use, realistic, very versatile, ergonomic, respecting established technical standards and very original. This invention is a method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (1) which is a software (2) written so that the user of a digital camera (3) associated with an optical device (1) can photograph and record the anatomy and oral entities of themselves or others. For its correct operation, the software (2) must also be associated with a central processing unit or CPU (4) of a computerized device, a display screen (5) and a data storage device (6) with a library of initial images (BII) of the optical device (1) and of human faces. The digital camera (3) is associated with its lens (3a), its optical axis (3b), its focal point (3c) and a light device (3d).

The device (1) is made up of five objects, three fundamental objects being: the support (a), the carrying arm (f) and the clamping system (g), and two alternative objects being the group h and the group i. Thus the device (1) allows one or more optical element(s) (j1) (j2) (j3) to be associated, such as one or more mirrors, to the camera (3) and at a certain distance from it, either above or below it. In a partially digitalised manner the software guides the user in the disposition of the mouth observed by the camera (3) since the device (1) carries a series of reference marks which, when located by the software (2), warns the user of the correct positioning of the camera (3) with respect to the mouth and the optical elements (j1) (j2) (j3) that he is observing through it by means of, for example, some perceptible sound or visual signalling through the display screen (5). The method or software (2) claimed here allows, as indicated, a user to observe his or her mouth or the mouth of another subject with a camera (3) associated with an optical device (1). In this way, both the user and the software (2) can take records (photographs or videos) associated with very precise metadata of three-dimensional geolocation and dimensional calculation of the images and objects present in them. The intuitive guidance and the recording of data carried out in an iterative manner allows the algorithms present in the software a better guidance, recording and possible subsequent fully automated identification of the structures present, which allows a fully digitalized approach to the method claimed here.

Illustratively, an optical device (1) is presented consisting of:

- a support (a) with an anchoring element (a1) that can be a clamp, suction cup or male-female type, it is disclosed in this exhibition in an illustrative manner that the anchoring element (a1) is a high-pressure, folding grip clip type clamp with a soft interior filling (b). On the anchoring element (a1) is the support (a) made up of two perpendicular hollow tubes, the upper one (c1) and the perpendicular one (c2), remaining at a certain distance from each other and adhered to each other. The holes (d1)(d2) of these hollow tubes (c1)(c2) are identical polyhedral and perpendicular to each other without touching. It is disclosed in this exhibition in an illustrative manner that both hollow tubes (c1)c2) and hollow tubes (d1)(d2) are orthohedral. Crossing these hollow tubes (c1)(c2) there are two bolts (e1)(e2), one for each hollow tube (c1)(c2), bolt (e1)(e2) that goes through the wall of its corresponding hollow tube (c1)(c2) until reaching perpendicularly its corresponding hole (d1)(d2).

- a support arm (f) made up of two polyhedral beams, one shorter (f1) and one longer (f2) attached perpendicularly. The beam (f1) is introduced into the holes (d1)(d2) as appropriate through one of its ends and the beam (f2) emerges perpendicularly from the other end. The two beams (f1)(f2) can be telescopic, folding or solid. This exhibition discloses in an illustrative manner two orthohedral beams (f1)(f2) attached in the form of a capital L. The longest beam (f2) has two reference marks on it (ref1 and ref2) arranged at a certain distance from the free end of the beam (f2), on the lateral faces (corresponding to the plane that includes the entire "L" and symmetrically on one face of the beam (f2) and the other on the opposite face, these marks (refl and ref2) are not identical. The longest beam (f2) also has two holes on it (f3) and (f4) on the other two lateral faces different from those where the reference marks (ref1 and ref2) are arranged symmetrically.

- a fastening system (g) consisting of a gripping element (g1) that may be of the clamp, suction cup, male-female or adhesive type, disclosed in this disclosure in an illustrative manner is a hollow orthohedral tube with an orthohedral cavity (g2) with a bolt (g3) passing through it perpendicularly from the outside to its cavity (g2). Adhered to the gripping element (g1) is a polyhedral platform (g4) arranged at a certain distance from it and at a certain inclination (al) with respect to the gripping element (gl) in the vertical plane. The platform (g4) has a trench (g5). The fastening system (g) carries at least one lighting element (g6) connected to a cable (g7). Centered above the gripping element (gl) there is a reference mark (ref3) arranged on the outside of one face of the gripping element (g1). The most distal and highest point of the gripping system (g), located in the middle of the trench (g5) at its highest point, is the reference mark (ref3a).

Furthermore, the optical device (1) is also made up of two groups of objects which are group h (group h) and group i (group i). These groups (h and i) allow the proper adaptation of optical elements, such as mirrors (j1)(j2)(j3) to the device (l). These optical elements extend the field of view of the camera (3) to areas that without them it is impossible for it to reach and record through it. For the recording of the depth, a simple mirror (such as the one arranged in group h) in movement and trigonometric calculations are sufficient since images and references in space are recorded at different times of the same object, but, the contribution of a triangular system of mirrors such as the one provided by group i offers simultaneously, in a simple shot, all the necessary information by stereoscopy, facilitating the use of the method claimed here.

The group h (group h) is composed of a simple frame (h) and optical elements such as a lens or a mirror (jl) with an anti-fog layer. By way of illustration, a mirror (jl) is claimed here as an optical element, thus the group (group h) is constituted by a simple frame (h) which is a drawer made up of at least three polyhedral walls (h1)(h2)(h3), two of them parallel to each other and identical, which are the lateral walls (h1)(h2), joined at their ends by the third wall (h3) which is perpendicular to these. The lateral walls (h1)(h2) contain a rail (h4) inside. The bottom of the frame (h) is partially open (h5) and partially solid (h6). The wall (h3) has a slot (h7). The three walls (h1)(h2)(h3) have a polyhedral platform (h8) above them. This platform (h8) has a minimum of one lighting element (h9) connected to a cable (h10). The solid part (h6) of the bottom of the frame (h) contains a projecting beam behind it as a perpendicular spoiler (h11). Above the bottom of the frame (h) which is partially solid (h6) and centered between the side walls (h1)(h2) there is a reference mark (ref4). Inside the frame it is possible to adapt optical elements such as a mirror (j1) or a lens with reference marks (ref 5) centered below, this slides through the slot (h7) and the rails (h4). The bottom (h6) has a polyhedral platform (h12) below that covers it. The most distal and highest point of the simple frame (h), arranged in the middle of the platform (h8) at the top, is the reference mark (ref4a).

The group i (group i) is composed of a composite frame (i) and two mirrors (j2) (j3) with anti-fog layer, the composite frame (i) is made up of a central frame (i1) and a minimum of two side frames (i2) (i3) joined symmetrically and with a certain inclination (a2) on each side of the central frame (i1). The side frames (i2) (i3) are two identical drawers that in illustrative views are orthohedral and made up of four joined, polyhedral walls (i4) (i5) (i6) (i7), parallel to each other two by two (i4) (i5) and (i6) (i7), (i4) (i5) being longer than the other two (i6) (i7): the external (i4), the internal (i5), the upper (i6) and the lower (i7). The walls (i4)(i5)(i6) contain inside a rail (i8) continuous in all their interior extensions. The external wall (i4), internal (i5) and the upper one (i6) have above them a polyhedral platform (i9). The lower wall (i7) contains a slot (i10). The central frame (i1) is a drawer made up of at least three polyhedral walls (i11)(i12)(i13) two of them parallel to each other and identical which are the lateral ones (i12)(i13) joined at their ends by the third wall (i11) which is perpendicular to these. The lateral walls contain inside a rail (i14). The frame (il) does not have a solid bottom. The three walls (i11)(i12)(i13) have above them a polyhedral platform (i15). Above the platform (i15) there are arranged a minimum of one lighting element (i16) connected to a cable (i17). Centered above the part of the platform (i15) that is above the wall (i11), there is a reference mark (ref6). The side frames (i2)(i3) are connected to the central frame (il) by means of the union of the polyhedral platforms (i9) and (i15). Inside the side frames two mirrors (j2,j3) are adapted (one for each frame) with reference marks (ref7,ref8) respectively centered below, these enter through the slot (i10) through the rail (i8). The point located at the highest and most distal of the composite frame (i), located above the platform (i15) at its highest and most central point, is the reference mark (ref6a).

The optical elements are mirrors and/or lenses, in illustrative views three mirrors (j1)(j2)(j3) are disclosed, all three with a transparent anti-fog layer on top which are polyhedral and identical to each other, in illustrative views they are orthohedral. These fit inside each frame respectively, the mirror (j1) in the frame (h), the mirror (j2) in the frame (i2) and the mirror (j3) in the frame (i3). The mirror (j1) is guided through the rail (h4) inside the frame (h). The mirrors (j2)(j3) enter through the slot in the wall (i7) of each frame (i2)(i3) and are guided by the rails (i10)(i11) to their position inside their respective frames (i1)(i2). These each have a reference mark (ref6,ref7,ref8) centered below.

The clamping system (g) is connected to the carrier arm (f) by means of the beam (f2) at its free end so as to match the reference marks (refl) with (ref3) if the carrier arm (f) has been positioned on one side of the chamber (3) and (ref2) with (ref3) if the carrier arm (f) has been positioned above the chamber (3). In addition, the clamping system (g) will be fixed in the indicated position by means of its bolt (g3) which is inserted into the relevant hole (f3) or (f4) of the beam (f2).

The clamping system(g), simple frame(h) and composite frame(i) can be joined together: the simple frame(h) is joined to the clamping system(g) by fitting the perpendicular fin(h13) of the simple frame(h) to the trench(g5) of the clamping system(g) and, sliding the composite frame(i) into the simple frame(h) by introducing the platform (h8) of the simple frame(h) into the rails (i15) of the composite frame(i).

Reference marks (ref1,ref2,ref3,ref4,ref4a,ref5,ref6,ref6a,ref7,ref8,) may be lines, points, geometric figures or symbols. For illustrative purposes, reference marks are raised points. The reference mark (ref3a) is virtual.

The optical device (1) allows an ideal adaptation to a digital camera (3) within the framework of the claimed method. It is evident that other solutions for fixing to a camera (3) of the clamping system (g), of the simple frame (h) and of the composite frame (i) can also be associated and included in the method claimed here.

The software (2) has access to an initial image library (BII) contained in a storage device (6) to which the CPU (4) associated with the camera (3) has access. This library (BII) is a library of undistorted images of the objects: beam (f2), clamping system (g), group (grouph) of the simple frame (h), group (groupi) of the composite frame (i); their respective reference marks (refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) and a face with its most relevant biometric references the iris (ref9) and (ref10) for the eyes, tip of the nose(ref11) and point of the philtrum at its intersection(ref12) with the vermilion border of the upper lip for the nose, the labial commissures(ref13) and (ref14) and the intersection point (ref15) between the labial line arranged between the reference marks (ref13) and(ref14) and the median labial line arranged between the reference marks (ref12) and the intersection point (ref16), (ref16) being the intersection point between the perpendicular projection downwards of the philtrum and the vermilion border of the lower lip.

The software(2) contains:

1. a "man-machine" interrelation interface visible by the display screen (5) to which the CPU (4) to which the camera (3) is connected. It is developed in the appropriate language which, for illustrative purposes, may be C#, Java, Python, C++, HTML/CSS/JavaScript, React, Angular, Vue. js, PHP, Python (with Django or Flask), Ruby (with Ruby on Rails), Swift and Objective-C, Java and Kotlin, JavaScriptHTML/CSS, XML. In this exposition, the languages Python, Swift and Objective-C for iOS systems and Kotlin and Java for Android systems are claimed as preferred languages for the development of the interface. Through this man-machine interrelation interface, the operator (OP) has access to interact with the software (2) according to the method claimed here.

2. a preliminary automatic guidance, calibration and registration protocol (PG) for an operator (OP) using the optical device (1). The guidance and calibration protocol (PG) for an operator (OP) using the optical device (1) is developed in the appropriate language which can be C++, Python, Java, C#, MATLAB, Fortran, JavaScript, R: ,Ruby; as an illustration, Python is claimed as the preferred language for the development of the guidance protocol. By means of the guidance protocol for an operator (OP), the operator (OP) will be guided towards his mouth for a specific relative arrangement(s) in the space of the clamping system(g) and its reference mark(ref3)(ref3a), group (group h) of the simple frame(h) with its reference marks (ref4),(ref4a) or(ref5) and group(group i) of the composite frame(i) and its reference marks (ref6)(ref6a)(ref7)(ref8), as well as polyhedral beam(f2) with its marks (refl) or (ref2) and the relevant biometric data of a face, iris (ref9) and (ref10) for the eyes, tip of the nose(ref11) and point of the philtrum at its intersection(ref12) with the vermilion border of the upper lip for the nose, labial commissures(ref13) and (ref14) and the intersection point (ref15) between the labial line arranged between the reference marks (ref13) and (ref14) and the median labial line arranged between the reference marks (ref12) and the intersection point (ref16), (ref16) being the intersection point between the perpendicular projection downwards of the philtrum and the vermilion border of the lower lip; all these marks being visible by a digital camera (3) which in turn has a lens (3a) with an optical axis (3b) and a focal point (3c).

The automatic guidance, calibration and preliminary registration protocol (PG) contains:

- some initial processing codes (IPC). These are written in the appropriate language and are a digital representation code/s accessible for example from opensource sources such as openCV, which identify the general adjustable parameters of the viewing range of a digital camera(3) (width, height and viewing angle) and a digital camera calibration code/s(3).

-It also contains object detection codes (ODC) and face detection codes (FDC) and their biometric reference data such as the eyes, tip of the nose and mouth, as well as their parts such as the corners of the lips, cupids bows, lip line and mid-lip line for the mouths, caruncles, iris for the eyes and philtrum, wings, tip or grooves for the nose, etc. These codes are accessible, for example, from opensource sources such as openCV. The detection is based on the models of the initial image library (BII) and by means of an appropriate object detection model extracted for example from opensource sources such as openCV being for example histograms of oriented gradients or convolutional neural networks and thanks to the extraction of specific characteristics of each object, for example its reference indicators, angles, geometric shapes, edges etc. we can train the model in such a way that it iteratively improves the detection sequences as data is added to new libraries of first (BIP1) and second (BIP2) processed images in order to detect, position and track the objects of the clamping system (g), the group (grouph) of the simple frame (h) and the group (groupi) the composite frame (i) and the polyhedral beam (f2) and a face in an image with a high level of predictability and in real time. The software(2) will pay attention to the reference marks (ref1), (ref2), (ref3),(ref3a), (ref4) ,(ref4a),(ref5), (ref6),(ref6a) (ref7), (ref8), (ref9), (ref10), (ref11), (ref12), (ref13), (ref14), (ref15), (ref16).

-It also contains computer vision positioning algorithms (AL) that allow triangulation processes to be performed.

- It also contains programming based on predefined rules and static data structures that allows the taking of video recordings or photographs automatically, both made by a camera (3) connected to a CPU (4), video or photographs that will be stored in a storage device (6) associating them with alphanumeric data of special coordinates on a three-dimensional axis (X;Y;Z), as well as measurements and angles obtained thanks to the use of the optical device (1). This programming allows at least the capture of high resolution photos, the focus controls of a camera (3) and the exposure controls of a lighting device (3d) associated with a camera (3) or the lighting elements (g6, h9, i16) of the optical device (1) as appropriate. The programming also includes a gallery management and data storage for automatic extraction of a minimum of one photographs with image output formats that, for illustrative purposes, may be JPEG, PNG or BMP, the JPEG format is maintained as the preferred option for recording images and videos of a minimum duration of one second, which, for illustrative purposes, may be MP4, AVI, MKV, and the MP4 format is retained as the preferred option for recording video. In addition, the programming includes a development that allows alphanumeric data to be associated, such as spatial coordinates (X; Y; Z), measurements or angles, automatically with a minimum of one photograph or video taken of a minimum duration of one second; Data extracted simultaneously with the taking of a minimum of one photograph or every minimum of one second for the extraction of frames from the video of a minimum of one second duration. The import and export of this data: is carried out in common formats, such as CSV or XML, to facilitate collaboration and the transfer of information and in optimal conditions of security and privacy, and will be stored in an orderly manner on the storage device(6).

This protocol consists of 3 cycles, as we will see in more detail in the description of the method claimed here.

3. a protocol (PF) for final processing and manual registration of final images The protocol (PF) for final processing and manual registration of final images for an operator (OP) using the optical device (1) is developed in the appropriate language which can be C++, Python, Java, C#, MATLAB, Fortran, JavaScript, R: ,Ruby; as an illustration, the Python language is claimed as the preferred language for the development of this image registration protocol. Thanks to the protocol (PF) for final processing and image registration for an operator (OP) using a camera (3) associated with the optical device (1), the operator (OP) can record images by associating them with alphanumeric data such as identification data and spatial coordinate data on a three-dimensional axis (X;Y;Z), as well as measurements and angles. In the same way as in the automatic guidance, calibration and preliminary registration protocol (PG), the final processing and manual registration protocol (PF) of final images seeks the final result of the processing of new images, bypassing the guidance and calibration processes of the other protocol (PG), thus this final processing and final image registration protocol (PF) integrates or has access to:

- initial processing codes (IPC). These are written in the appropriate language and are a digital representation code/s accessible for example from opensource sources such as openCV, which identify the general adjustable parameters of the viewing range of a digital camera(3) (width, height and viewing angle) and a digital camera calibration code/s(3).

-It also contains object detection codes (ODC) and face detection codes (FDC) and their biometric reference data such as the eyes, tip of the nose and mouth, as well as their parts such as the corners of the lips, cupids bows, lip line and mid-lip line for the mouths, caruncles, iris for the eyes and philtrum, wings, tip or grooves for the nose, etc. These codes are accessible, for example, from opensource sources such as openCV. The detection is based on models from the second processed image library (BIP2) and by means of an appropriate object detection model extracted for example from opensource sources such as openCV being for example histograms of oriented gradients or convolutional neural networks and thanks to the extraction of specific features of each object, for example its reference indicators, angles, geometric shapes, edges etc. we can train the model in such a way that it iteratively improves the detection sequences as data is added to new final processed image libraries (BPF) in order to detect, position and track the objects of the clamping system (g), the group (grouph) of the simple frame (h) and the group (groupi) the composite frame (i) and the polyhedral beam (f2) and a face in an image with a high level of predictability and in real time. The software(2) will pay attention to the reference marks (ref1), (ref2), (ref3),(ref3a), (ref4) ,(ref4a),(ref5), (ref6),(ref6a) (ref7), (ref8), (ref9), (ref10), (ref11), (ref12), (ref13), (ref14), (ref15), (ref16).

-It also contains computer vision positioning algorithms (AL) that allow triangulation processes to be performed.

- a programming based on predefined rules and static data structures that allows the taking of video recordings or photographs manually, both made by a camera (3) connected to a CPU (4), video or photographs that will be stored in a storage device (6) associating them with alphanumeric data of special coordinates on a three-dimensional axis (X;Y;Z), as well as measurements and angles obtained thanks to the use of the optical device (1). This programming allows at least the capture of high resolution photos, the focus controls of a camera (3) and the exposure controls of a lighting device (3d) associated with a camera (3) or the lighting elements (g6,h9,i16) of the optical device (1) by an operator (OP) as appropriate. The programming also includes a gallery management and data storage for automatic extraction of (n1) photographs with image output formats that, for illustrative purposes, may be JPEG, PNG or BMP, the JPEG format is maintained as the preferred option for recording images and videos of (T1) duration that, for illustrative purposes, may be MP4, AVI, MKV, the MP4 format is retained as the preferred option for recording video. This gallery management integrates quality control of the extracted image or video data, a preview so that the operator can see the images or videos before saving them, with an output folder management to facilitate the organization of the extracted photographs or videos by allowing the operator to choose the destination folder. In addition, the programming integrates a development that allows alphanumeric data to be associated automatically, such as spatial coordinates (X;Y;Z), measurements or angles, to the (n1) photographs or video taken of (T1) duration; data extracted simultaneously with the taking of (n1) photographs or every (T2) time for the extraction of frames from the video of (T1) duration. Both (n1) and (T1) and (T2) are defined by the operator (OP) as we will see below in the description of the method claimed here. The import and export of this data: is carried out in common formats, such as CSV or XML, to facilitate collaboration and the transfer of information and in optimal conditions of security and privacy, and will be stored in an orderly manner on the storage device (6) as a final image library (BIF).

The method of recording the anatomy and oral entities by means of photographic images obtained by means of the optical device (1) involves the use of the software (2) by an operator (OP) with a camera (3) with an associated optical device (1) on a patient. In illustrative views it is disclosed that the operator (OP) is the patient and uses his mouth for the development and description of the claimed methodology. The same method can be applied to the mouth of a person other than the operator (OP). Also illustratively, a camera (3) integrated into a mobile device (7) is presented, which in turn integrates a CPU (4), a display screen (5) and a storage device (6). Said display screen (5) is here illustratively located behind the camera (3).

The method or software(2) claimed here involves 3 successive stages which are the following:

Stage 1 - determination of static rules or coding standards and manual preparation of the optical device (1) on the camera (3)

Stage 2 - Guidance, calibration and preliminary registration of the optical device (1) in reference to the camera (3) and with the biometric reference data of the operator (OP).

_Cycle1-detection of the optical device(1) present in the range of vision of the camera lens(3a)(3)

_Cycle 2 - Generation of the first processed image library (BPI1) _Cycle 3 - generation of the second processed image library (BPI2) Stage 3 - application of the final processing protocol (PF) and manual registration of final images

Each of these stages describes the structure of the software (2) or method claimed here associated with the optical device (1), software (2) that allows from an initial coding and arrangement of the device (1) both marked by the user to arrive at a very precise digital record of data and metadata of intraoral structures as we see below.

• Stage 1- determination of static rules or coding standards-Manual preparation of the optical device (1) on the camera (3)

The operator (OP) adjusts the support (a) with anchoring element (a1) to the camera (3) before or in parallel with the coding. The operator (OP) can place the optical device (1) above and above the lens (3a) of the camera (3) or to the side, depending on whether the support with clamping element (a) is placed on the camera (3). The operator (OP) then fits the beam (f1) of the carrying arm (f) into the tubes (c1) or (c2) of the support (a) with anchoring element (a1); he will do so on the upper tube (c1) if the support with anchoring element (a1) is placed above the lens (3a) of the camera (3) and he will do so on the perpendicular tube (c2) if the support with anchoring element (a1) is placed next to the lens (3a) of the camera (3). Next, the operator (OP) places the clamping system (g), which for illustrative purposes is a hollow tube (g1) with a cavity (g2), inside the beam (f2) by its free end, leaving the reference marks (ref1) well aligned with (ref3) if the optical device (1) has been placed next to the lens (3a) of the camera (3) and the reference marks (ref2) with (ref3) if the optical device (1) has been placed above the lens (3a) of the camera (3), and passing the bolt (g3) into the holes (f3) or (f4) as appropriate. You can, if necessary, later place the simple frame (h) on the clamping system (g) by fitting its perpendicular wing (h11) with the trench (g5) of the clamping system platform (g) and you can also fit the composite frame (i) by sliding its rails (i14) onto the platform (h8) of the simple frame (h).

The device (1) allows the operator (OP) to adjust the clamping system (g), the simple frame (h) and the compound frame (i) in front of and at a certain distance from the objectives (3a) of the camera (3) as follows:

-Horizontally, thanks to the adjustment of the arm of the carrier arm (f), by means of the displacement of the polyhedral beam (f1) within the polyhedral gap (d1)(d2) of the hollow tubes (c1)(c2) alternately and depending on whether the operator (OP) wants to arrange the clamping system (g), the simple frame (h) and the compound frame (i) above or below the lens (3a) of the camera (3);

-In a vertical direction, by adjusting the anchoring element (a1) higher or lower. -The anteroposterior adjustment of the fastening system (g) on the beam (f2) only allows two possibilities, ref1 aligned with ref3 or ref2 aligned with ref3. In each case, the fastening system (g) is anchored by means of the bolt (g3) in the corresponding bolt hole (f3) or (f4).

Coding standards:

-The nomenclature is predetermined as follows:

- the focal point(3c) of the camera(3a) is the zero point of a three-axis three-dimensional coordinate system axis (x,y,z) and the optical axis(3b) is the X axis of the same coordinate system.

- polyhedral beam(f2) above the camera lens(3a)(3)= (ref2)

-polyhedral beam(f2) next to the camera lens(3a)(3)= (ref1)

- of the clamping system(g) = (ref3),

- the most distal and highest point of the gripping system(g) =(ref3a).

- simple frame(h) without mirror(j1)= (ref4)

- simple frame(h) with mirror(j1)= (ref5)

-the most distal and highest point of the simple frame(h)= (ref4a).

- composite frame(i) with mirrors (j2)(j3)= (ref6) (ref7)(ref8)

- the most distal and highest point of the composite frame(i)= (ref6a).

- the irises= (ref9) for the right and (ref10) for the left

-tip of the nose= (ref11)

- point of the philtrum at its intersection with the vermilion border of the upper lip = (ref12)

-the corners of the lips= (ref13) for the right and (ref14) for the left -intersection point between the labial line arranged between the reference marks (ref13) and (ref14) and the middle labial line arranged between the reference marks (ref12) and the intersection point (ref16)= (ref15)

- the point of intersection between the perpendicular projection downwards of the philtrum and the vermilion border of the lower lip= (ref16).

- the reference marks (refl), (ref2), (ref3),(ref3a) (ref4),(ref4a), (ref5), (ref6),(ref6a) (ref7), (ref8), (ref9), (ref10), (ref11), (ref12), (ref13), (ref14), (ref15), (ref16) have the values:

_(refx1), (refx2), (refx3),(refx3a), (refx4),(refx4a), (refx5), (refx6),(refx6a), (refx7), (refx8), (rex9), (rex10), (refx11), (refx12), (refx13), (refx14), (refx15), (refx16) in their perpendicular projection with the X axis respectively

-(refyl), (refy2), (refy3),(refy3a),(refy4),(refy4a) (refy5), (refy6),(ref6ya),(refy7), (refy8), (refy9), (refy10), (refy11), (refy12), (refy13), (refy14), (refy15), (refy16), in their perpendicular projection with the Y axis respectively,

_(refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8), (refz9), (refz10), (refz11), (refz12), (refz13), (refz14), (refz15), (refz16) in their perpendicular projection with the Z axis respectively.

-The following are predetermined as coding standards:

The data delivered with the device layout (1) that cannot be modified by the operator (OP) are:

If the clamping system (g) is correctly attached to the beam (f2) then:

(refy3)=(refy3a)= (refy4)=(ref4ya)=(ref5y)=(refy6)=(refy6a)

(refx3)-(refx1)=(refx3)-(refx2) =distance(dis3) in millimeters

(refx3a)-(rexf3)=distance(disx3a) in millimeters

(refz3a)-(refz3)= distance(disz3a) in millimeters

(refx4)-(refx3)=distance(dis4) in millimeters

(refx4a)-(refx4)=(refx4a)-(refx5)=distance (disx4a) in millimeters

(refz4a)-(refz4)= (refz4a)-(refz5)=distance(disz4a) in millimeters

(refx6)-(rexf3)=distance(dis6) in millimeters

(refx6a)-(refx6)= distance (disx6a) in millimeters

(refz6a)-(refz6)= distance(disz6a) in millimeters

(refx7)=(refx8)

(refy7)=-(refy8)

(refz6-refz7)=(refz6-refz8)= distance(disz67) in millimeters

(ref3a) is the center of a circle with a diameter (dia1) in millimeters formed by the 2 upper corners of the platform (g4) of the clamping system.

(ref4a) is the center of a circle of diameter (dia2) in millimeters formed by the 2 upper corners of the platform (h8) of the simple frame (h).

(ref6a) is the center of a circle of diameter (dia3) in millimeters formed by the 2 upper corners of the platform (i15) of the composite frame (i).

(a1)in degrees

(a2)in degrees

They are determined by the operator (OP) as coding standards that: the operator (OP) has to answer some questions through the software interface (2) that appears through the display screen (5) to determine:

-"What objects of the device (1) must be searched for in the range of vision of the objective (3a)?"; Operator responses: beam (f2), clamping system (g), simple frame (h) and composite frame (i) equivalent to (ref1) (ref2) (ref3) (ref4) (ref5)(ref6)(ref7)(ref8) as appropriate.

-"Where is the device (1) located?"; operator responses= above the objective (3a) equivalent to (ref2), below the objective (3a) equivalent to (refl) -"If there is a simple frame (h), does it have a mirror (j1)?" equivalent if=ref5 and no=ref4

-If you are going to take photos or videos

-If there is light exposure

-If there is, what lighting element will be used, the lighting device (3d) that carries the camera (3) or the lighting elements (g6,h9,i16)

-identification data and medical history of the operator (OP)

(n1) in digits (minimum 1)

(T1) in seconds (minimum 1 second)

(T2) in seconds (minimum 1 second), where T1>T2 and T2 is always an integer.

Results:

With the coding rules the software (2) knows specifically: where the optical device (1) must be located in reference to the camera (3), defining (ref1) or (ref2); if it has or not a simple frame (h) and a compound frame (i); if the simple frame (h) has a mirror (j1); the exact distances between the reference marks of the optical device (1) and the spatial arrangement between them on an axis (X;Y;Z). It also knows the type and form of light exposure that will be used, the number (n1) of photographs to be taken or the duration (T1) of the video to be made, the number (n2) of images to be extracted from the video where (n2)= (T1)/(T2) which corresponds to the number of times that data will be attached to said images. These results are memorized in the storage device (6) in an orderly manner.

• Stage 2-Guidance, calibration and preliminary registration of the optical device (1) in reference to the camera (3) and with the biometric reference data of the operator (OP).

For greater precision in the positioning of the optical device (1) in reference to the camera (3) and subsequently in relation to the biometric reference data of his face, the operator (OP) through the "man-machine" interface accessible through the display screen (5), makes use of the software (2) connected to the CPU (4) integrated with the camera (3). With the camera (3) in operation the software (2) generates data from the initial image library (BII) and applies the protocol (PG) for guidance, calibration and preliminary automatic registration. The software (2) through its interface visible through the display screen (5) is able to emit messages perceptible by the operator (OP) to guide in the correct positioning such as visible images such as arrows, sounds etc... Also the software (2) accompanying the optical device (1) indicates to the operator (OP) to fix in space the support arm (f) in the tubes (cl) or (c2) with the bolts (el) or (e2) as appropriate and when necessary, and to raise or lower the support (a) by means of the relevant vertical readjustment of the anchoring element (a1). In a very precise way, the human operator (OP) is guided to the correct positioning of the clamping system (g), group h (grouph) and group i (groupi) with reference to the objective (3a) of the camera (3), and to its biometric reference marks (ref9, ref10, ref11, ref12, ref13, ref14, ref15, ref16). This precision is provided by the preliminary automatic guidance, calibration and registration protocol (PG) which allows the operator (OP) to arrange the camera (3) and the optical device (1) in a very precise way in relation to his mouth, an arrangement that is recorded in the processing libraries (BPI1) and (BPI2).

The protocol (PG) consists of 3 cycles which are:

_Cycle1-detection of the optical device(1) present in the range of vision of the camera lens(3a)(3)

oObjectives: detection of the objects defined in stage 1 of the method which are beam (f2), clamping system (g), simple frame (h) with or without mirror (jl) and composite frame (i) with mirrors (j2)(j3) and their respective reference marks (refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) as appropriate.

oInputs: In its cycle, the guidance, calibration and preliminary automatic registration protocol (PG) takes the information from;

-the initial image library (IIL),

-Initial Processing Codes (IPC) that identify the general adjustable parameters of the viewing range of a digital camera(3) and digital camera calibration codes(3).

-some object detection codes (ODC)

-the results of stage 1

- some new images captured by the camera(3) (minimum 1).

Results:

- the target objects, beam (f2), clamping system (g), simple frame (h) and compound frame (i) and their respective reference marks ((ref1) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) are detected, then the software (2) emits a signal perceptible by the operator (OP), records at least one photograph of the event in the initial reference library (BII) and goes to cycle 2 - the objects are not detected then the software (2) notifies the operator (OP) through the interface and requests that the process be repeated.

_Cycle2- Generation of the first processed image library (BPI1)

oObjective: guidance to a specific relative arrangement(s) in the space between the focal point(3c) of a camera(3), the objects of the optical device(1) and their corresponding reference marks (ref1) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8). The objective of this guidance is to follow a predefined spatial pattern;

-where the results of cycle 1 must always be respected

-where (refx1 )=(refx2)< (refx3)<(ref3a)<(refx4)=(refx5)< (ref4a) < (refx6).

-where (refy1)=(refy2)=(refy3)=(refy4)=(refy5)=(refy6)= 0.

-where if (ref1) has been identified in stage 1 then (refz1),(refz3),(refz3a),(refz4)(refz4a)(refz5)(refz6)(refz6a) are negative

- where if ref2 has been identified in stage 1 then (refz2), (refz3),(refz3a),(refz4)(refz4a)(refz5)(refz6)(refz6a) are positive.

-where the relative coordinates (x,y,z) of each present reference mark are known (ref1) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) by means of the hypotenuses of each rectangular triangle formed by each projection on each axis and the results of stage 1.

oInputs: in its cycle2 the guidance protocol (PG) takes the information from;

-the initial image library (IIL),

-Initial Processing Codes (IPC) that identify the general adjustable parameters of the viewing range of a digital camera(3) and digital camera calibration codes(3).

-some object detection codes (ODC)

- the results of cycle 1

-some new images captured by the camera(3) (minimum 1).

Process: With CPU (4), camera (3) and software (2) active, the codes (CPI) and through the data extracted from the initial image library (BII), the detection and identification of the previous objects, the use of the codes (CPI) and the results of cycle 1 and through a computer vision positioning algorithm that allows triangulation processes, creating a network of triangles from the reference marks (ref1) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) and their respective perpendicular projections on each axis and the focal point (3c) the set objectives are achieved. The steps are:

With the camera (3) connected to the CPU (4) and according to the results of stage 1 and 2 First; determination of coordinates (x,y,z) of ref1 or ref2 and of ref3 and ref3a Second; warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the beam (f2) and the clamping system (g) according to the objective. If the objective is achieved then a perceptible sign is emitted by the operator (OP) and a photograph is recorded in the first processed image library (BPI1)

Third; determination of coordinates (x,y,z) of (ref4) or (ref5) and (ref4a) Fourth, notification to the operator (OP) by means of perceptible signs through the software interface (2) to place the simple frame (h) and the optical element (j1) if necessary according to objectives. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI1).

Fifth; if necessary, determination of coordinates (x,y,z) of ref6, ref6a, ref7 and ref8

Sixth; (if applicable) notification to the operator (OP) by means of perceptible signs through the software interface (2) to place the composite frame (h) and the optical elements (j2, j3) according to objectives. If the objective is achieved then a signal perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI1)

Seventh; the objective is achieved and the software(2) issues a warning to the operator(OP) by means of perceptible signs through the software(2) interface thereof. Eighth; the software(2) takes a minimum of one photograph of the new situation which it stores in the first processed image library (BPI1) and also makes a copy of this(these) images in the initial image library(BII) on the storage device(6) in an orderly manner.

If the desired determination action is not achieved at each step, the software (2) repeats the action once, returning to the previous step. On the second attempt, it requests the operator (OP) through the interface to restart the entire process. If, on the other hand, the action is achieved, it goes on to cycle 3.

oResults :

-The operator (OP) is digitally guided to place the optical device (1) aligned along the optical axis (3b) of the camera lens (3a) (3) above or below it according to objectives

-registering new images (minimum 1) in a new processed image library (BIP1) and copying this(these) images to the initial image library (BII) on the storage device(6) in an orderly manner.

_Cycle 3 - generation of the second processed image library (BPI2)

oObjective:

-detection of the biometric reference data defined in step 1 of the claimed method while maintaining the results of cycle 1 and 2

- guidance to a specific relative arrangement(s) in the space between the focal point(3c) of a camera(3), the objects of the optical device(1) and the relevant biometric data of a face. This guidance follows a predefined spatial pattern;

-where the results of cycle 1 and 2 must always be respected

-where the arrangement of the objects of the optical device (1) detected in cycle 2 must not prevent the correct visualization of the references (ref9) and (ref10), (ref11) (ref12) (ref13) (ref14)(ref15)(ref16) of the operator's (OP) face. -where the biometric reference marks (ref9) and (ref10), (ref11) (ref12) (ref13) (ref14)(ref15)(ref16) are detected within the range of vision of the lens (3a) if they have not been discarded by the Operator (OP) in step 1 of the claimed method.

-where (refz9) and (refz10) are above the references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) with their corresponding digital equivalents

- where (refz11) is above references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) and below (refz9) and (refz10) with their corresponding digital equivalents - where (refz12) is above references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) and below (refz9) and (refz10) and (refz11) with their corresponding digital equivalents

-where (refz16) is below the references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) and below (refz9) and (refz10) and (refz11) and (refz12). with their corresponding digital equivalents

-where (refy9) has a positive value

-where (refy9) is to the left of (refy1), (refy2), (refy3), (refy3a)(refy4) (refy4a)(refy5), (refy6), (refy6a)(refy7)(refy8) with their corresponding digital equivalents

-where (refy10) has a negative value

- where (refy10) is to the right of (refy1),(refy2),(refy3),(refy3a)(refy4) (refy4a)(refy5),(refy6),(refy6a)(refy7)(refy8) with their corresponding digital equivalents

-where (refy11)=(refy12)=(refy16) =0

- where (refy13) has a positive value

- where (refy13) is to the left of (refy1) (refy2) (refy3) (refy3a) (refy4)(refy4a) (refy5)(refy6) (refy6a)(refy7)(refy8) and to the right of (refy9) with their corresponding digital equivalents.

-where (refy14) has negative value

-where (refy14) is to the right of (refy1) or (refy2), (refy3), (refy3a), (refy4) (refy5), (refy4a), (refy6), (refy6a), (ref:y7)(refy8) and to the left of (refy10) with their corresponding digital equivalents.

-where (refz15) is the midpoint of the base of the isosceles triangle formed by (ref12)(ref13)(ref14) of vertex (ref12) and the triangle (ref16 )(ref13)(ref14) of vertex (ref16).

- where (refx15) is greater than (refx3a) ,

- where (refx15) is greater than (refx4a),

-where (refx15) is greater than (refx6a)

Inputs: In its cycle 3 the guiding protocol (PG) takes the information from; - the first processed image library (BPI1),

-Initial Processing Codes (IPC) that identify the general adjustable parameters of the viewing range of a digital camera(3) and digital camera calibration codes(3).

- some object detection codes (ODC)

-Biometric facial recognition detection codes (CDC)

-the results of cycle 1 and 2

-stage 1 results

--some new images captured by the camera(3) (minimum 1).

Process: With CPU (4), camera (3) and software (2) in reference to the codes (CPI) and (CDC) and through the data extracted from the first processed image library (BPI1), the detection and identification of the previous objects, the use of the codes (CPI) and (CDC), the results of cycle 1,2, the results of stage 1 and through a computer vision positioning algorithm that allows triangulation processes, create a network of triangles from the reference marks (ref1), (ref2), (ref3), (ref3a), (ref4), (ref4a), (ref5), (ref6), (ref6a), (ref7), (ref8), (ref9), (ref10), (ref11), (ref12), (ref13), (ref14), (ref15), (ref16), from their respective perpendicular projections on each axis x,y,z and focal point (3c) the set objectives are achieved. The steps are:

With the optical device (1)/camera (3) assembly in operation and according to the objectives of the previous stages,

First: determination of coordinates (x,y,z) of (ref1)(ref2) (ref3)(ref3a),(ref4)(ref4a)(ref5), (ref6)(ref6a), (ref7), (ref8) according to cycle 2 of the guidance protocol

Second: detection of (ref9) and (ref10)

Third: warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref9) and (ref10) according to the objective. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2) Fourth: detection of (ref11)

Fifth, the operator (OP) is notified by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref11) according to the objective. If the objective is achieved, then a perceptible sign is emitted by the operator (OP) and a photograph is recorded in the first processed image library (BPI2). Sixth: detection of (ref12)

Seventh: warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) set in its disposition with reference to (ref12) according to the objective. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2) Eighth: detection of (ref13) and (ref14)

Ninth: warning to the operator (OP) by means of signs perceptible through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref13) and (ref14) according to the objective. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2) Tenth: detection of (ref16)

Eleventh: warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref16) according to the objective. If the objective is achieved then a perceptible sign is emitted by the operator (OP) and a photograph is recorded in the first processed image library (BPI2) Twelfth: detection of (ref15)

Thirteenth: the operator (OP) is notified by means of signs perceptible through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref15) according to the objective. If the objective is achieved, then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2). Fourteenth: the objective is achieved and the software (2) emits a warning to the operator (OP) by means of signs perceptible through the software interface (2) of this.

Fifteenth; the software (2) takes a photograph of the new situation which it stores in the second processed image library (BPI2) on the storage device (6) in an orderly manner and also makes a copy of this(these) images in the first processed image library (BPI1) which it stores in the storage device (6) in an orderly manner.

If the desired determination action is not achieved at each step, the software (2) repeats the action once, and if it is not achieved, it returns to the previous stage, requesting the operator (OP) to restart the entire process through the interface. If, on the other hand, it is achieved, it goes on to stage 4 of the method.

oResults:

-the camera(3)/optical device(1) assembly detects the objects on the face defined in stage 1

-the mouth of the operator (OP) with the rest of its biometric features (eyes, tip of the nose), the objects of the clamping system (g)(ref3), the simple frame (h)(ref4 or ref5) and the compound frame (i)(ref6, ref7, ref8) and the polyhedral beam (f2)(ref1 or ref2) appear in the field of view of the objective (3a) of a digital camera (3) and the references of the clamping system (g), the grouph (grouph) and the groupi (groupi) as appropriate remain outside the mouth according to objectives.

- registering new images (minimum 1) in a new processed image library (BIP2) and copying this(these) images to the processed image library (BPI1) on the storage device(6) in an orderly manner.

• Stage 3 - application of the final processing protocol (PF) and manual registration of final images

In this step the operator (OP) positions the camera (3)/optical device (1) assembly close to the anatomical structure or oral entity to be recorded, either inside or outside the mouth (lips), always with the objectives respected in steps 1, 2 and 3 of the method claimed here and launches a recording or photographs according to the protocol (PF) of final processing and manual registration of final images and thus takes (n1) photographs or launches a video recording with the camera (3)/optical device (1) assembly in a time (T1) by the camera (3). The video recording is carried out in several spatial positions in a predefined time (T1) in step 1 of the method claimed here. The operator (OP) takes the number of photographs (n1) defined by him in step 1 of the method claimed here. It will also control the light exposure. If at any time stages 2 and 3 are not respected (due to a sudden movement, lack of battery, etc.), the final image recording protocol (PF) sends the operator (OP) to stage 3 of the method claimed here and will issue warnings and be perceptible to the operator to arrange the objects in alignment (within certain margins marked by the protocol) according to the objectives of the guidance protocol, stopping the recording, which will be manually resumed in the new redirected situation.

Goals:

-detection of biometric reference marks (ref9 (ref10)(ref11)(ref12)(ref13)(ref14)(ref15(ref16)) while maintaining the results of steps 1,2 and 3 of the method claimed herein.

-determination of the spatial coordinates (X;Y;Z) of the reference marks (ref9 (ref10)(ref11)(ref12)(ref13)(ref14)(ref15)(ref16)

-registration of the images and processed data in the final results library (BRF) and copying them to the second processed images library (BIP2)

Tickets:

Results of stage 1, 2, and 3

Second Processed Image Library (BIP2)

some new images captured by the camera(3) (minimum 1).

Process:

Step 1: The Operator (OP) launches the photo or video recording according to objectives through the software interface (2) in the position of his choice within the parameters set in the objectives of the previous stages.

Step 2: The software (2) uses the triangulation algorithms of the registration protocol (PF) to determine, thanks to the references provided by the optical device (1), the arrangement of the references of the new records compared with the records of the second processed image library (BIP2).

Step 2: The image and its corresponding alphanumeric data are automatically stored together in an orderly manner according to objectives.

<o>Results: the operator has chosen to take (n1) photographs or a video of (T1) as indicated in step 1 of the claimed method, the software (2) has associated to each (n1) photograph or to each (T1)/(T2) frame of the video, the corresponding alphanumeric data resulting from steps 1, 2, 3 and 4 of the claimed method and has stored them in the storage device (6) in an orderly manner in the final results library (BRF).

The software(2) makes a copy of the images and data in the second processed image library (BIP2).

The alphanumeric digits are thus recorded with the image, in absolute quantity, millimeters or degrees as appropriate of:

- for reference marks (ref1), (ref2), (ref3),(ref3a) (ref4),(ref4a) (ref5), (ref6),(ref6a) (ref7), (ref8), (ref9), (ref10), (ref11), (ref12), (ref13), (ref14), (ref15), (ref16):

(refx1), (refx2), (refx3), (refx3a), (refx4), (refx4a), (ref5), (refx6), (refx6a) (refx7), (refx8), (rex9), (rex10) , (xref11), (xref12), (xref13), (xref14), (xref15), (xref16) on the X axis:

(refy1), (refy2), (refy3)(refy3a), (refy4),(refy4a) (refy5), (refy6),(refy6a) (refy7), (refy8), (refy9), (refy10), ( refy11), (refy12), (refy13), (refy14), (refy15), (refy16) on the Y axis:

(refz1), (refz2), (refz3), (refz3a), (refz4), (refz4a) (refz5), (refz6), (refz6a), (refz7), (refz8), (refz9), (refz10) , (refz11), (refz12), (refz13), (refz14), (refz15), (refz16) in the Z axis

the static data of the stage:

-(a1)=in degrees

-(a2)=in degrees

-If there is light exposure

-If there is, what lighting element has been used, whether the one carried by the mobile device (7) or the lighting elements (g6,h9,i16) and for how long (T1) if it is a video.

-The operator's (OP) identification data and medical history

The use of the optical device (1) by the operator (OP) allows him to access all the anatomical spaces, whether extra or intraoral. The data from the final results library (BRF) become part of the second processed image library (BIP2), the data from the second processed image library (BIP2) become part of the first processed image library (BIP1) and the data from the first processed image library (BIP1) become part of the initial image library (BII). Thus, the iterative use of each library allows the algorithms to improve the correct functioning of the system in order to be much more efficient.

The final data included in the final results library (BRF) are extremely useful in the field of medicine and particularly dentistry, since we have reliable, measurable, repeatable data that allow for very precise digital follow-up. They also allow the analysis and recording of many oral pathologies using autofluorescence. In addition, they allow the analysis of images using stereoscopic calculations, which allows depth to be captured and a three-dimensional field to be defined from data identified in the images, all this either thanks to the symmetrical arrangement of the mirrors (j2)(j3) inclined according to an angle (al) with the mirror (jl) or by taking several images within the field of view of the camera (3). In addition, the optical device (1) can be adapted to a large number of devices, so that it can be recorded both in the clinical and extra-clinical field in a very accessible way.

BRIEF DESCRIPTION OF THE DRAWINGS

For easy understanding of the description being made, the description is complemented by a set of drawings in which, for illustrative and non-limiting purposes, the elements and stages of the method claimed here have been represented. Figure 1 represents a general diagram of the method claimed here.

Figure 2 represents a perspective view of the optical device (1) where we see its fundamental elements: the support (a) with anchoring element (a1), the carrying arm (f) and the clamping system (g).

Figure 3 represents a perspective view of the optical device (1) where we see its fundamental elements: a support (a) with an anchoring element (a1), the carrying arm (f) and the clamping system (g), with the group h (group h) here with a simple frame (h).

Figure 4 represents a perspective view of the optical device (1) where we see its fundamental elements: the support (a) with anchoring element (a1), the carrying arm (f) and the clamping system (g), with the group h (group h) here with simple frame (h) and optical element (j1) and with the group i (group i) where we see the composite frame (i) and the two mirrors (j2) (j3).

Figure 5 shows a perspective view of the support (a) with anchoring element (a1) which is a high pressure folding grip clip type clamp with a soft interior filling (b). On the anchoring element (a1) is the support (a) made up of two hollow tubes perpendicularly the upper one (c1) and the perpendicular one (c2) remaining at a certain distance from each other and adhered to each other. The holes (d1)(d2) of these hollow tubes (c1)(c2) are identical and perpendicular to each other without touching. Both hollow tubes (c1)(c2) and hollow tubes (d1)(d2) are orthohedral. Crossing these hollow tubes (c1)(c2) is a dynamic bolt (e1)(e2), one for each hollow tube (c1)(c2).

Figure 6 shows a side view of the carrying arm (f) made up of two polyhedral beams, one short (f1) and one long (f2), here solid orthohedral, here in the form of a capital L. The reference mark (ref1) can be seen on the longer beam (f2). Figure 7 shows the other side view of the carrying arm (f) made up of two polyhedral beams, one short (f1) and one long (f2), here solid orthohedral, here in the form of a capital L. The reference mark (ref2) can be seen on the longer beam (f2).

Figure 8 shows a perspective view of the clamping system (g) consisting of a gripping element (g1) which is a hollow orthohedral tube with an orthohedral cavity (g2) with a bolt (g3) passing through it perpendicularly. Adhered to the gripping element (g1) is a polyhedral platform (g4) arranged at a certain distance from it and at a certain inclination (a1) with respect to the gripping element (g1) in the vertical plane. The platform (g4) has a trench (g5) where we see the reference mark (ref3a). The clamping system (g) carries a minimum of one light element (g6) connected to a cable (g7). Centered above the gripping element (g1) there is a reference mark (ref3) arranged on the outside on one face of the gripping element (g1).

Figure 9 shows another perspective view of the clamping system (g) where we can see better the bolt (g3), the light element (g6) connected to a cable (g7). We can see the reference mark (ref3) placed on the outside of one side of the gripping element (g1). We can also see the reference mark (ref3a).

Figure 10 represents a front perspective view of an object of group h (group h) of the simple frame (h) which is a chest of drawers made up of three polyhedral walls (h1)(h2)(h3), two of them parallel to each other and identical, which are the lateral walls (h1)(h2), joined at their ends by the third wall (h3) which is perpendicular to them. The lateral walls (h1)(h2) contain a rail (h4) inside. The bottom of the frame (h) is partially open (h5) and partially solid (h6). The three walls (h1)(h2)(h3) have a polyhedral platform (h8) above them. This platform (h8) has a minimum of one lighting element (h9) connected to a cable (h10). Above the bottom (h6) of the frame (h) which is partially solid and centered between the side walls (h1)(h2) there is a reference mark (ref4). This bottom (h6) has a polyhedral platform (h12) underneath that covers it. The reference mark (ref4a) is also visible.

Figure 11 represents a rear perspective view of an object of group h (group h) the simple frame (h) where we see the projecting beam as a perpendicular spoiler (h11) of the solid part (h6) of the bottom of the frame (h) and the slot (h7) of the wall (h3). We also see the cable (h10).

Figure 12 represents a perspective view of the optical element (j1) of group h (group h) here an orthohedral mirror with a reference mark (ref5).

Figure 13 represents a front perspective view of the complete group h (group h) attached to the fastening system (g), we see the optical element (j1) and its reference mark (ref5) and the simple frame (h).

Figure 14 represents a front perspective view of objects of group i (group i), the composite frame (i) with a mirror (j2) in its side frame (i2) and the other side frame (i3) without a mirror. We see the composite frame (i) consisting of a central frame (i1) and two side frames (i2)(i3) symmetrically joined on each side of the central frame (i1). We see the polyhedral walls (i4)(i5)(i6)(i7), parallel to each other two by two (14) (i5) and (i6)(i7), (i4)(i5) being longer than the other two (i6)(i7): the external (i4), the internal (15), the upper (i6) and the lower (i7). The walls (i4)(i5)(i6) contain a rail (i8) inside. The external wall (i4), internal wall (i5) and the upper wall (i6) have a polyhedral platform (i9) above them. We see in the central frame (i1), the polyhedral platform (i15). Above the platform (i15) and (i9) there are arranged a minimum of one lighting element (i16) connected to a cable (i17). Centered above the part of the platform (i15) that is above the wall (i11), there is a reference mark (ref6). The side frames (i2)(i3) are connected to the central frame (i1) by the union of the polyhedral platforms (i9) and (i15). We see in the side frame (i2) the mirror (j2) with the reference mark (ref7). We also see the reference mark (ref6a).

Figure 15 represents a rear perspective view of an object of group i (group i), the composite frame (i) attached to an object of group h (group h), the simple frame (h) and the fastening system (g). We see the composite frame (i), its central frame (i1) and a minimum of two lateral frames (i2)(i3) joined symmetrically and with a certain inclination (a2) on each side of the central frame (i1). We see the polyhedral walls: the external (i4), the internal (i5), the upper (i6). We see the polyhedral platform (i9). We see the three polyhedral walls (i11)(i12)(i13) of the central frame (i1). The lateral walls contain a rail (i14) inside. The three walls (i11)(i12)(i13) have a polyhedral platform (i15) above them.

Figure 16 represents a figurative perspective view of step 3 of the claimed method. Where we see the reference marks (refl) (ref2) (ref3) (ref11) (ref12 ) (ref14) (ref15) (ref16). We see the mobile phone (7), its display screen (5), the support (a) with anchoring element (al).

Figure 17 represents a figurative top view of stage 3 of the method claimed here where the reference marks (refl) of the carrier arm (f), the mobile (7) with its lens (3a) and its lighting device (3d) can be seen. We also see the reference mark (ref11) and the support (a).

PREFERRED EMBODIMENT OF THE INVENTION

As already indicated, the method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (1) object of the invention, in its preferred embodiment, and as can be seen in figure 1, comprises three stages, stage 1, stage 2, stage 3; stage 2 is in turn made up of three cycles. These are:

Stage 1 - determination of static rules or coding standards and manual preparation of the optical device (1) on the camera (3)

Stage 2 - Guidance, calibration and preliminary registration of the optical device (1) in reference to the camera (3) and with the biometric reference data of the operator (OP).

_Cycle1-detection of the optical device(1) present in the range of vision of the camera lens(3a)(3)

_Cycle 2 - Generation of the first processed image library (BPI1) _Cycle 3 - generation of the second processed image library (BPI2) Stage 3 - application of the final processing protocol (PF) and manual registration of final images

This optical device (1) is made up of its fundamental elements: the support (a) with anchoring element (a1), the carrier arm (f) and the clamping system (g) as we see in figure 2; it is also optionally made up of a simple frame (h) part of the group h (group h), as we see in figure 3, here we also see the support (a) with anchoring element (a1), the carrier arm (f) and the clamping system (g); it is also optionally made up of a group of objects (group i) made up of the composite frame (i) and the two mirrors (j2) (j3) as we see in figure 4, here we also see the support (a) with anchoring element (a1), the carrier arm (f) and the clamping system (g) and the objects of the group h (group h), the simple frame (h) and its mirror (j1). In more detail we see in figure 5 the support (a) with anchoring element (a1) which is a high pressure folding grip clip type clamp with a soft interior filling (b). On the anchoring element (a1) is the support (a) made up of two hollow tubes, the upper one (c1) and the perpendicular one (c2) remaining at a certain distance from each other and adhered to each other. The holes (d1)(d2) of these hollow tubes (c1)(c2) are identical and perpendicular to each other without touching. Both hollow tubes (c1)(c2) and hollow tubes (d1)(d2) are orthohedral. Crossing these hollow tubes (c1)(c2) is a bolt (e1)(e2), one for each hollow tube (c1)(c2). We can also see in more detail in figure 6 the support arm (f) made up of two polyhedral beams, one short (f1) and one long (f2) orthohedral, here remaining in the shape of a capital L. The reference mark (refl) can be seen on the longer beam (f2). In figure 7, we can see the support arm (f) made up of two polyhedral beams, one short (f1) and one long (f2) orthohedral, here remaining in the shape of a capital L. The reference mark (ref2) can be seen on the longer beam (f2). In figure 8, we see the clamping system (g) made up of a gripping element (g1) which is a hollow orthohedral tube with an orthohedral cavity (g2) with a bolt (g3) passing through it perpendicularly. Attached to the gripping element (g1) is a polyhedral platform (g4) arranged at a certain distance from it and at a certain inclination (al) with respect to the gripping element (g1) in the vertical plane. The platform (g4) has a trench (g5) and above it the reference mark (ref3a). The clamping system (g) carries at least one lighting element (g6) connected to a cable (g7). Centered above the gripping element (gl) there is a reference mark (ref3) arranged on the outside on one side of the gripping element (g1). In figure 9 we see the clamping system (g), its bolt (g3), the lighting element (g6) and the cable (g7). We also see the reference mark (ref3) and (ref3a) centered. In figure 10 we see the simple frame (h) which is a chest of drawers made up of three polyhedral walls (h1)(h2)(h3), two of them parallel to each other and identical, which are the side walls (h1)(h2), joined at their ends by the third wall (h3) which is perpendicular to them. The side walls (h1)(h2) contain a rail (h4) inside. The bottom of the frame (h) is partially open (h5) and partially solid (h6). The wall (h3) has a slot (h7). The three walls (h1)(h2)(h3) have a polyhedral platform (h8) above them. This platform (h8) has a minimum of one lighting element (h9) connected to a cable (h10). Above the bottom of the frame (h) which is partially solid (h6) and centered between the side walls (h1)(h2) there is a reference mark (ref4). The bottom (h6) has a polyhedral platform (h12) underneath that covers it. We also see the reference mark (ref4a). In figure 11 we see the back of the simple frame (h) where we see the protruding beam as a perpendicular spoiler (h11) of the solid part (h6) of the bottom of the frame (h) and the slot (h7) of the wall (h3). We also see the cable (h10). In figure 12 we see the optical element (jl) here an orthohedral mirror with a reference mark (ref5). In figure 13 we can see the complete group h (group h) attached to the clamping system (g), we see the optical element (jl) and its reference mark (ref5) and the simple frame (h) with its reference marks (ref4) and (ref4a). In figure 14 we see the front part of the composite frame (i) of group i (group i) of objects, consisting of a central frame (i1) and two side frames (i2) (i3) symmetrically attached to each side of the central frame (i1). The side frames (i2) (i3) are two identical and orthohedral drawers and made up of four walls): the external (i4), the internal (15), the upper (i6) and the lower (i7). The walls (i4) (i5) (i6) contain a rail (i8) inside. The external wall (i4), internal (i5) and the upper (i6) have a polyhedral platform (i9) above. We see the polyhedral platform (i15) above. Above the platform (i15) are arranged a minimum of one lighting element (i16) connected to a cable (i17). We see the reference mark (ref6) and (ref6a). The side frames (i2)(i3) are connected to the central frame (i1) by means of the union of the polyhedral platforms (i9) and (i15). We see the side frame (i2) with its mirror (j2) and corresponding reference mark (ref7), the side frame (i3) is here free of mirror. In figure 15 we see the back of an object of group i (group i), the composite frame (i) adhered to an object of group h (group h), the simple frame (h) and the fastening system (g). We see the frame composed (i) its central frame (i1) and a minimum of two lateral frames (i2)(i3) joined symmetrically and with a certain inclination (a2) on each side of the central frame (i1). We see the polyhedral walls: : the (i4) external, the (i5) internal, the (16) upper. We see the polyhedral platform (i9). We see the three polyhedral walls (i11)(i12)(i13) of the central frame (i1). The lateral walls contain a rail (i14) inside. The three walls (i11)(i12)(i13) have a polyhedral platform (i15) above them. In figure 16 we see a figurative representation of stage 3 of the claimed method, where we see the reference marks (refl) (ref2) (ref3) (ref11) (ref12 ) (ref14) (ref15) (ref16). We also see the mobile (7), its display screen (5), the support (a) with anchoring element (a1). In the figure we see another figurative representation of stage 3 of the method claimed here where the reference marks (refl) of the carrier arm (f), the mobile (7) with its lens (3a) and its lighting device (3d) can be seen. We also see the reference mark (ref11) and the support (a).

Claims (7)

1. Method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (l), is composed of software (2) and an optical device (1) associated with a digital camera (3) with a lens (3a), an optical axis (3b) and a focal point (3c) and a lighting device (3d); and which must have access to a central processing unit or CPU (4) of a computerized device, to a display screen (5) and to a data storage device (6) and to a library of initial images (B11) of the optical device (l) and of human faces. 2. Method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (l), according to the first claim, which involves 3 successive stages which are the following: Stage- Determination of static rules or coding standards and manual preparation of the optical device (1) on the camera (3) Stage 2 - Guidance, calibration and preliminary registration of the optical device (1) in reference to the camera (3) and with the biometric reference data of the operator (OP). _Cycle1-detection of the optical device(l) present in the range of vision of the camera lens(3a)(3) _Cycle2- generation of the first processed image library (BPII) _Cycle 3 - Generation of the second processed image library (BPI2) Stage 3 - Application of the final processing protocol (PF) and manual registration of final images 3. Method of recording the anatomy and oral entities through photographic images obtained with an optical device (l), according to the first claim, consisting of an optical device (1) made up of five objects, three fundamental objects being: the support (a), the supporting arm (f) and the fastening system (g), and two added objects which are group h and group i. The support (a) with anchoring element (al) which is a high pressure folding grip clip type clamp with a soft interior filling (b). On the anchoring element (al) is the support (a) made up of two perpendicular hollow tubes, the upper one (c1) and the perpendicular one (c2) remaining at a certain distance from each other and adhered to each other. The holes (d1)(d2) of these hollow tubes (c1)(c2) are identical polyhedral and perpendicular to each other without touching. Both hollow tubes (c1)c2) and hollow tubes (d1)(d2) are orthohedral. Crossing these hollow tubes (c1)(c2) there are two bolts (e1)(e2), one for each hollow tube (c1)(c2), bolt (e1)(e2) that passes through the wall of its corresponding hollow tube (c1)(c2) until reaching perpendicularly its corresponding hole (d1)(d2). The carrying arm (f) is made up of two polyhedral beams, one shorter (fl) and one longer (f2) attached perpendicularly. The two beams (f1)(f2) are orthohedral and attached in the shape of a capital L. The longer beam (f2) has two reference marks on it (refl and ref2) arranged at a certain distance from the free end of the beam (f2), on the lateral faces (corresponding to the plane that includes the entire "L" and symmetrically on one face of the beam (f2) and the other on the opposite face, these marks (refl and ref2) are not identical. The longer beam (f2) also has two holes on it (f3) and (f4) on the other two lateral faces different from those where the reference marks (ref1 and ref2) are arranged symmetrically. The clamping system (g) consists of a gripping element (gl) which is a hollow orthohedral tube with an orthohedral cavity (g2) with a bolt (g3) passing through it perpendicularly from the outside to its cavity (g2). Adhered to the gripping element (gl) is a polyhedral platform (g4) arranged at a certain distance from it and at a certain inclination (al) with respect to the gripping element (gl) in the vertical plane. The platform (g4) has a trench (g5). The clamping system (g) carries a minimum of one light element (g6) connected to a cable (g7). Centered above the gripping element (gl) there is a reference mark (ref3) arranged on the outside on one face of the gripping element (gl). The most distal and highest point of the gripping system (g), located in the middle of the trench (g5) at its highest point, is the reference mark (ref3a). The group h (group h) is composed of a simple frame (h) and optical elements being a mirror (jl) with anti-fog layer. Thus the group (group h) is made up of a simple frame (h) which is a drawer made up of at least three polyhedral walls (h1)(h2)(h3) two of them parallel to each other and identical which are the lateral walls (h1)(h2) joined at their ends by the third wall (h3) which is perpendicular to these. The lateral walls (h1)(h2) contain a rail (h4) inside. The bottom of the frame (h) is partially open (h5) and partially solid (h6). The wall (h3) has a slot (h7). The three walls (h1)(h2)(h3) have a polyhedral platform (h8) above them. This platform (h8) has a minimum of one lighting element (h9) connected to a cable (h10). The solid part (h6) of the bottom of the frame (h) contains a projecting beam behind it as a perpendicular spoiler (h 11). Above the bottom of the frame (h) which is partially solid (h6) and centered between the side walls (h1)(h2) there is a reference mark (ref4). Inside the frame it is possible to adapt optical elements such as a mirror (jl) or a lens with reference marks (ref 5) centered below, this slides through the slot (h7) and the rails (h4). The bottom (h6) has a polyhedral platform (h12) below that covers it. The most distal and highest point of the simple frame (h), arranged in the middle of the platform (h8) at the top, is the reference mark (ref4a). The group i (group i) is composed of a composite frame (i) and two mirrors (j2) (j3) with anti-fog coating, the composite frame (i) is made up of a central frame (il) and a minimum of two side frames (i2) (i3) joined symmetrically and with a certain inclination (a2) on each side of the central frame (i1). The side frames (i2) (i3) are two identical orthohedral drawers and made up of four joined, polyhedral walls (i4) (i5) (i6) (i7), parallel to each other two by two (i4) (i5) and (i6) (i7), (i4) (i5) being longer than the other two (i6) (i7): the external (i4), the internal (i5), the upper (i6) and the lower (i7). The walls (i4) (i5) (i6) contain inside a rail (i8) continuous in all their interior extensions. The external wall (Í4), internal (i5) and the upper one (i6) have a polyhedral platform (i9) above them. The lower wall (i7) contains a slot (i10). The central frame (il) is a drawer made up of a minimum of three polyhedral walls (i11)(i12)(i13), two of them parallel to each other and identical, which are the lateral walls (i12)(i13), joined at their ends by the third wall (i11) which is perpendicular to them. The lateral walls contain a rail (i14) inside. The frame (il) does not have a solid bottom. The three walls (i11)(i12)(i13) have a polyhedral platform (i15) above them. Above the platform (i15) there are arranged a minimum of one lighting element (i16) connected to a cable (i17). Centered above the part of the platform (i15) that is above the wall (i11), there is a reference mark (ref6). The side frames (i2)(i3) are joined to the central frame (il) by means of the union of the polyhedral platforms (i9) and (i15). Inside the side frames two mirrors (j2,j3) are adapted (one for each frame) with reference marks (ref7,ref8) respectively centered below, these enter through the slot (i10) through the rail (i8). The point located at the highest and most distal of the composite frame (i), located above the platform (i15) at its highest and most central point, is the reference mark (ref6a). The optical elements are mirrors (J1)(J2)(J3) all three octohedral and with a transparent anti-fog layer on top, which are polyhedral and identical to each other. Each of them has a reference mark (ref6,ref7,ref8) centered at the bottom. 4. Method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (l), according to the first claim, consisting of software (2) containing: - a "man-machine" interrelation interface visible through the display screen (5) to which the CPU (4) to which the camera (3) is connected. It is developed in the Python, Swift and Objective-C languages for iOS systems and Kotlin and Java for Android systems. -a preliminary automatic guidance, calibration and registration protocol(PG) for an operator(OP) using the optical device(l). The preliminary automatic guidance, calibration and registration protocol(PG) for an operator(OP) using the optical device(l) is developed in the Python language. The preliminary automatic guidance, calibration and registration protocol(PG) contains initial processing codes (IPC) that identify the adjustable general parameters of the viewing range of a digital camera(3) (width, height and viewing angle) and a/some digital camera calibration codes(3), -object detection codes (ODC) and face detection codes (FDC) and their biometric reference data. - computer vision positioning algorithms (AL) that allow triangulation processes to be carried out, - a programming based on predefined rules and static data structures that allows the taking of video recordings or photographs automatically, both made by a camera (3) connected to a CPU (4), video or photographs that will be stored in a storage device^) associating them with alphanumeric data of special coordinates on a three-dimensional axis (X;Y;Z), as well as measurements and angles obtained thanks to the use of the optical device (l). - a gallery management and data storage for automatic extraction of a minimum of one photograph with output formats in JPEG format and video of a minimum duration of one second in MP4 format. -a development that allows alphanumeric data such as spatial coordinates (X;Y;Z), measurements or angles to be automatically associated with a minimum of one photograph or video taken lasting at least one second. The import and export of this data: is carried out in common formats, such as CSV or XML, to facilitate collaboration and the transfer of information and in optimal conditions of security and privacy, and will be stored in an orderly manner on the storage device(6). 5. Method for recording the anatomy and oral entities by means of photographic images obtained with an optical device (l), according to the second claim, consisting of the stage l or Determination of static rules or coding standards and manual preparation of the optical device (1) on the camera (3) where the operator (OP) adjusts before or in parallel to the coding the support (a) with anchoring element (al) to the camera (3). The coding standards are: - the focal point(3c) of the camera(3a) is the zero point of a three-axis three-dimensional coordinate system axis (x,y,z) and the optical axis(3b) is the X axis of the same coordinate system. - polyhedral beam(f2) above the camera lens(3a)(3)= (ref2) -polyhedral beam(f2) next to the camera lens(3a)(3)= (refl) - of the clamping system(g) = (ref3), - the most distal and highest point of the gripping system(g) =(ref3a). - simple frame(h) without mirror(j1)= (ref4) - simple frame(h) with mirror(j1)= (ref5) -the most distal and highest point of the simple frame(h)= (ref4a). - composite frame(i) with mirrors (j2)(j3)= (ref6) (ref7)(ref8) - the most distal and highest point of the composite frame(i)= (ref6a). - the irises= (ref9) for the right and (ref10) for the left -tip of the nose= (ref11) - point of the philtrum at its intersection with the vermilion border of the upper lip = (ref12) -the corners of the lips= (ref13) for the right and (ref14) for the left -intersection point between the labial line arranged between the reference marks (ref13) and (ref14) and the middle labial line arranged between the reference marks (ref12) and the intersection point (ref16)= (ref15) - the point of intersection between the perpendicular projection downwards of the philtrum and the vermilion border of the lower lip= (ref16). - the reference marks (refl), (ref2), (ref3),(ref3a) (ref4),(ref4a), (ref5), (ref6),(ref6a) (ref7), (ref8), (ref9), (ref10), (ref11), (ref12), (ref13), (ref14), (ref15), (ref16) have the values: _(refx1), (refx2), (refx3),(refx3a), (refx4),(refx4a), (refx5), (refx6),(refx6a), (refx7), (refx8), (rex9), (rexIO), (refx11), (refx12), (refx13), (refx14), (refx15), (refx16) in their perpendicular projection with the X axis respectively -(refyl), (refy2), (refy3),(refy3a),(refy4),(refy4a) (refy5), (refy6),(ref6ya),(refy7), (refy8), (refy9), (refy10 ), (refy11), (refy12), (refy13), (refy14), (refy15), (refy16), in its perpendicular projection with the Y axis respectively, _(refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8), (refz9), ( refz10), (refz11), (refz12), (refz13), (refz14), (refz15), (refz16) in its perpendicular projection with the Z axis respectively. -The following are predetermined as coding standards: The data delivered with the device(s) layout that cannot be modified by the operator(OP) are: If the clamping system (g) is correctly attached to the beam (f2) then: (refy3)=(refy3a)= (refy4)=(ref4ya)=(ref5y)=(refy6)=(refy6a) (refx3)-(refx1)=(refx3)-(refx2) =distance(dis3) in millimeters (refx3a)-(rexf3)=distance(disx3a) in millimeters (refz3a)-(refz3)= distance(disz3a) in millimeters (refx4)-(refx3)=distance(dis4) in millimeters (refx4a)-(refx4)=(refx4a)-(refx5)=distance (disx4a) in millimeters (refz4a)-(refz4)= (refz4a)-(refz5)=distance(disz4a) in millimeters (refx6)-(rexf3)=distance(dis6) in millimeters (refx6a)-(refx6)= distance (disx6a) in millimeters (refz6a)-(refz6)= distance(disz6a) in millimeters (refx7)=(refx8) (refy7)=-(refy8) (refz6-refz7)=(refz6-refz8)= distance(disz67) in millimeters (ref3a) is the center of a circle of diameter (dial) in millimeters formed by the 2 upper corners of the platform (g4) of the clamping system. (ref4a) is the center of a circle of diameter (dia2) in millimeters formed by the 2 upper corners of the platform (h8) of the simple frame (h). (ref6a) is the center of a circle of diameter (dia3) in millimeters formed by the 2 upper corners of the platform (i15) of the composite frame (i). (in)degrees (a2)in degrees They are determined by the operator (OP) as coding standards that: the operator (OP) has to answer some questions through the software interface (2) that appears through the display screen (5) to determine: -“What objects of the device (1) must be searched for in the range of vision of the objective (3a)?”; Operator responses: beam (f2), clamping system (g), simple frame (h) and composite frame (i) equivalent to (ref1) (ref2) (ref3) (ref4) (ref5)(ref6)(ref7)(ref8) as appropriate. -“Where is the device (1) placed?”; operator responses= above the target (3a) equivalent to (ref2), below the target (3a) equivalent to (refl) -“If there is a simple frame (h), does it have a mirror (j1)?” equivalent if=ref5 and no=ref4 -If you are going to take photos or videos -If there is light exposure -If there is, what lighting element will be used, the lighting device (3d) that carries the camera (3) or the lighting elements (g6,h9,i16) -identification data and medical history of the operator (OP) (ni) in digits (minimum 1) (Ti) in seconds (minimum i second) (T2) in seconds (minimum i second), where T1>T2 and T2 is always an integer. 6. Method of recording the anatomy and oral entities by means of photographic images obtained with an optical device (l), according to the second claim, consisting of step 2 or Guidance, calibration and preliminary registration of the optical device (1) in reference to the camera (3) and with the biometric reference data of the operator (OP) consisting of the protocol (PG) is composed of 3 cycles which are: Cycle 1 - detection of the optical device (l) present in the range of vision of the lens (3a) of the camera (3) -Objectives: detection of objects defined in stage 1 of the method which are beam(f2), clamping system(g), simple frame(h) with or without mirror(jl) and composite frame(i) with mirrors(j2)(j3) and their respective reference marks (refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) as appropriate. -Inputs: in its cyclel the protocol(PG) for guiding, calibration and preliminary automatic registration takes the information from; -the initial image library (B11), -Initial Processing Codes (IPC) that identify the general adjustable parameters of the viewing range of a digital camera(3) and digital camera calibration codes(3). -some object detection codes (ODC) -the results of stage 1 - some new images captured by the camera(3) (minimum 1). Results: - the target objects, beam (f2), clamping system (g), simple frame (h) and compound frame (i) and their respective reference marks ((refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) are detected, then the software (2) emits a signal perceptible by the operator (OP), records at least one photograph of the event in the initial reference library (B11) and goes to cycle 2 - the objects are not detected then the software (2) notifies the operator (OP) via the interface and requests a process repetition. _Cycle2- Generation of the first processed image library (BPlI) - Objective: guidance to a specific relative arrangement/s in the space between the focal point(3c) of a camera(3), the objects of the optical device(1) and their corresponding reference marks (refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8). The objective of this guiding is to follow a predefined spatial pattern; -where the results of cycle 1 must always be respected -where (refxl )=(refx2)< (refx3)<(ref3a)<(refx4)=(refx5)< (ref4a) < (refx6). -where (refy1)=(refy2)=(refy3)=(refy4)=(refy5)=(refy6)= 0. -where if (refl) has been identified in stage 1 then (refz1),(refz3),(refz3a),(refz4)(refz4a)(refz5)(refz6)(refz6a) are negative - where if ref2 has been identified in stage 1 then (refz2), (refz3),(refz3a),(refz4)(refz4a)(refz5)(refz6)(refz6a) are positive. -where the relative coordinates (x,y,z) of each present reference mark are known (refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) by means of the hypotenuses of each rectangular triangle formed by each projection on each axis and the results of stage! -Inputs: in its cycle 2 the guidance protocol (PG) takes the information from; -the initial image library (B11), -Initial Processing Codes (IPC) that identify the general adjustable parameters of the viewing range of a digital camera(3) and digital camera calibration codes(3). -some object detection codes (ODC) - the results of cycle 1 -some new images captured by the camera(3) (minimum 1). .Process: With CPU (4), camera (3) and software (2) active, the codes (CPI) and through the data extracted from the initial image library (BN), the detection and identification of the previous objects, the use of the codes (CPI) and the results of cycle 1 and through a computer vision positioning algorithm that allows triangulation processes, creating a network of triangles from the reference marks (refl) (ref2) (ref3) (ref3a) (ref4)(ref4a) (ref5)(ref6) (ref6a)(ref7)(ref8) and their respective perpendicular projections on each axis and the focal point (3c) the set objectives are achieved. The steps are: With the camera (3) connected to the CPU (4) and according to the results of stage 1 and 2 First; determination of coordinates (x,y,z) of ref1 or ref2 and of ref3 and ref3a Second; warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the beam (f2) and the clamping system (g) according to the objective. If the objective is achieved then a perceptible sign is emitted by the operator (OP) and a photograph is recorded in the first processed image library (BPI1) Third; determination of coordinates (x,y,z) of (ref4) or (ref5) and (ref4a) Fourth, notification to the operator (OP) by means of perceptible signs through the software interface (2) to place the simple frame (h) and the optical element (jl) if necessary according to objectives. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI1). Fifth; if necessary, determination of coordinates (x,y,z) of ref6, ref6a, ref7 and ref8 Sixth; (if applicable) notification to the operator (OP) by means of perceptible signs through the software interface (2) to place the composite frame (h) and the optical elements (j2, j3) according to objectives. If the objective is achieved then a signal perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI1) Seventh; the objective is achieved and the software(2) issues a warning to the operator(OP) by means of perceptible signs through the software(2) interface thereof. Eighth; the software(2) takes a minimum of one photograph of the new situation which it stores in the first processed image library (BPI1) and also makes a copy of this(these) images in the initial image library(BII) on the storage device^) in an orderly manner. If the desired determination action is not achieved at each step, the software (2) repeats the action once, returning to the previous step. On the second attempt, it requests the operator (OP) through the interface to restart the entire process. If, on the other hand, the action is achieved, it goes on to cycle 3. -Results : -The operator (OP) is digitally guided to arrange the optical device (l) aligned according to the optical axis (3b) of the camera lens (3a) (3) above or below it according to objectives - registering new images (minimum 1) in a new processed image library (BIP1) and copying this(these) images to the initial image library (BN) on the storage device^) in an orderly manner. _Cycle 3- generation of the second processed image library (BPI2) -Objective: -detection of the biometric reference data defined in the claimed method stage while maintaining the results of the cycle and 2 - guidance to a specific relative arrangement(s) in the space between the focal point(3c) of a camera(3), the objects of the optical device(l) and the relevant biometric data of a face. This guidance follows a predefined spatial pattern; -where the results of cycle 1 and 2 must always be respected -where the arrangement of the objects of the optical device(l) detected in cycle 2 must not prevent the correct visualization of the references (ref9) and (ref10),(ref11) (ref12) (ref13) (ref14)(ref15)(ref16) of the operator's (OP) face. -where the biometric reference marks (ref9) and (ref10),(ref11) (ref12) (ref13) (ref14)(ref15)(ref16) are detected within the range of vision of the lens(3a) if they have not been discarded by the Operator (OP) in step 1 of the claimed method. -where (refz9) and (refz10) are above the references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) with their corresponding digital equivalents - where (refz11) is above references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) and below (refz9) and (refz10) with their corresponding digital equivalents - where (refz12) is above references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) and below (refz9) and (refz10) and (refz11) with their corresponding digital equivalents -where (refz16) is below the references (refz1), (refz2), (refz3),(refz3a), (refz4),(refz4a), (refz5), (refz6),(refz6a), (refz7), (refz8) and below (refz9) and (refz10) and (refz11) and (refz12). with their corresponding digital equivalents -where (refy9) has a positive value -where (refy9) is to the left of (refy1), (refy2), (refy3), (refy3a)(refy4) (refy4a)(refy5), (refy6), (refy6a)(refy7)(refy8) with their corresponding digital equivalents -where (refy10) has a negative value - where (refy10) is to the right of (refy1),(refy2),(refy3),(refy3a)(refy4) (refy4a)(refy5),(refy6),(refy6a)(refy7)(refy8) with their corresponding digital equivalents -where (refy11)=(refy12)=(refy16) =O - where (refy13) has a positive value - where (refy13) is to the left of (refyl) (refy2) (refy3) (refy3a) (refy4)(refy4a) (refy5)(refy6) (refy6a)(refy7)(refy8) and to the right of (refy9) with their corresponding digital equivalents. -where (refy14) has negative value -where (refy14) is to the right of (refyl) or (refy2), (refy3), (refy3a), (refy4) (refy5), (refy4a), (refy6), (refy6a), (refy7)(refy8) and to the left of (refy10) with their corresponding digital equivalents. -where (refz15) is the midpoint of the base of the isosceles triangle formed by (ref12)(ref13)(ref14) of vertex (ref12) and the triangle (ref16 )(ref13)(ref14) of vertex (ref16). - where (refx15) is greater than (refx3a) , - where (refx15) is greater than (refx4a), -where (refx15) is greater than (refx6a) -Inputs: in its cycle 3 the guiding protocol (PG) takes the information from; -the first processed image library (BPI1), -Initial Processing Codes (IPC) that identify the general adjustable parameters of the viewing range of a digital camera(3) and digital camera calibration codes(3). - some object detection codes (ODC) -Biometric facial recognition detection codes (CDC) -the results of cycle 1 and 2 -results of the stage --some new images captured by the camera(3) (minimum 1). - Process: With CPU (4), camera (3) and software (2) in reference to the codes (CPI) and (CDC) and through the data extracted from the first processed image library (BPI1), the detection and identification of the previous objects, the use of the codes (CPI) and (CDC), the results of cycle 1,2, the results of stage l and through a computer vision positioning algorithm that allows triangulation processes, create a network of triangles from the reference marks (refl), (ref2), (ref3), (ref3a), (ref4), (ref4a), (ref5), (ref6), (ref6a), (ref7), (ref8), (ref9), (ref10), (re f11), (ref12), (ref13), (ref14), (ref15), (ref16), of their respective perpendicular projections on each axis x,y,z and focal point (3c) the set objectives are achieved. The steps are: With the optical device (1)/camera (3) assembly in operation and according to the objectives of the previous stages, First: determination of coordinates (x,y,z) of (ref1)(ref2) (ref3)(ref3a),(ref4)(ref4a)(ref5), (ref6)(ref6a), (ref7), (ref8) according to cycle 2 of the guidance protocol Second: detection of (ref9) and (ref10) Third: warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref9) and (ref10) according to the objective. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2) Fourth: detection of (re f11) Fifth, the operator (OP) is notified by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref11) according to the objective. If the objective is achieved, then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2). Sixth: detection of (ref12) Seventh: warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) set in its disposition with reference to (ref12) according to the objective. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2) Eighth: detection of (ref13) and (ref14) Ninth: warning to the operator (OP) by means of signs perceptible through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref13) and (ref14) according to the objective. If the objective is achieved then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2) Tenth: detection of (ref16) Eleventh: warning to the operator (OP) by means of perceptible signs through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref16) according to the objective. If the objective is achieved then a perceptible sign is emitted by the operator (OP) and a photograph is recorded in the first processed image library (BPI2) Twelfth: detection of (ref15) Thirteenth: the operator (OP) is notified by means of signs perceptible through the software interface (2) to place the device (1)/camera (3) assembly in its disposition with reference to (ref15) according to the objective. If the objective is achieved, then a sign perceptible by the operator (OP) is emitted and a photograph is recorded in the first processed image library (BPI2). Fourteenth: the objective is achieved and the software (2) emits a warning to the operator (OP) by means of signs perceptible through the software interface (2) of this. Fifteenth; the software(2) takes a photograph of the new situation which it stores in the second processed image library (BPI2) on the storage device^) in an orderly manner and also makes a copy of this(these) images in the first processed image library (BPII) which it stores on the storage device^) in an orderly manner. If the desired determination action is not achieved at each step, the software (2) repeats the action once, and if it is not achieved, it returns to the previous stage, requesting the operator (OP) to restart the entire process through the interface. If, on the other hand, it is achieved, it goes on to stage 4 of the method. -Results: -the camera(3)/optical device(l) assembly detects the objects on the face defined in stage 1 -the mouth of the operator (OP) with the rest of its biometric features (eyes, tip of the nose), the objects of the clamping system (g)(ref3), the simple frame (h)(ref4 or ref5) and the compound frame (i)(ref6, ref7, ref8) and the polyhedral beam (f2)(ref1 or ref2) appear in the field of view of the objective (3a) of a digital camera (3) and the references of the clamping system (g), of the grouph (grouph) and of the groupi (groupi) as appropriate remain outside the mouth according to objectives. - registering new images (minimum 1) in a new processed image library (BIP2) and copying this(these) images to the processed image library (BPII) on the storage device^) in an orderly manner. 7. Method of recording the anatomy and oral entities through photographic images obtained with an optical device (l), according to the second claim, consisting of stage 3 or application of the final processing protocol (PF) and manual recording of final images: o Objectives: -detection of biometric reference marks (ref9 (ref10)(ref11)(ref12)(ref13)(ref14)(ref15(ref16)) while maintaining the results of steps 1,2 and 3 of the method claimed herein. -determination of the spatial coordinates (X;Y;Z) of the reference marks (ref9 (ref10)(ref11)(ref12)(ref13)(ref14)(ref15)(ref16) -registration of the images and processed data in the final results library (BRF) and copying them to the second processed images library (BIP2) o Tickets: Results of stage 1, 2, and 3 Second Processed Image Library (BIP2) some new images captured by the camera(3) (minimum 1). o Process: Step 1: The Operator (OP) launches the photo or video recording according to objectives through the software interface (2) in the position of his choice within the parameters set in the objectives of the previous stages. Step 2: The software(2) uses the triangulation algorithms of the registration protocol(PF) to determine, thanks to the references provided by the optical device(l), the arrangement of the references of the new records compared with the records of the second processed image library(BIP2). Step 2: The image and its corresponding alphanumeric data are automatically stored together in an orderly manner according to objectives. o Results: the operator has chosen to take (ni) photographs or a video of (Ti) as indicated in step i of the claimed method, the software (2) has associated to each (ni) photograph or to each (T1)/(T2) frame of the video, the corresponding alphanumeric data resulting from steps i, 2, 3 and 4 of the claimed method and has stored them in the storage device^) in an orderly manner in the final results library (BRF). The software(2) makes a copy of the images and data in the second processed image library (BIP2). The alphanumeric digits are thus recorded with the image, in absolute quantity, millimeters or degrees as appropriate of: - for reference marks (refl), (ref2), (ref3),(ref3a) (ref4),(ref4a) (ref5), (ref6),(ref6a) (ref7), (ref8), (ref9), (ref10), (re f11), (ref12), (ref13), (ref14), (ref15), (ref16): (refxl), (refx2), (refx3), (refx3a), (refx4), (refx4a), (refx5), (refx6), (refx6a) (refx7), (refx8), (rex9), (rexIO) , (xref11), (xref12), (xref13), (xref14), (xref15), (xref16) on the X-axis: (refyl), (refy2), (refy3)(refy3a), (refy4),(refy4a) (refy5), (refy6),(refy6a) (refy7), (refy8), (refy9), (refy10), ( refy11), (refy12), (refy13), (refy14), (refy15), (refy16) on the Y axis: (refz1), (refz2), (refz3), (refz3a), (refz4), (refz4a) (refz5), (refz6), (refz6a), (refz7), (refz8), (refz9), (refz10) , (refz11), (refz12), (refz13), (refz14), (refz15), (refz16) in the Z axis the static data of the stage: -(ai)=in degrees -(a2)=in degrees -If there is light exposure -If there is, what lighting element has been used, whether the one carried by the mobile device (7) or the lighting elements (g6,h9,i16) and for how long (TI) if it is a video. -The operator's (OP) identification data and medical history