JP2007114400A - Stroke-order/handwriting recorder, and stereo glasses - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a stroke-order/handwriting recorder capable of recording stroke order and handwriting. <P>SOLUTION: The stroke-order/handwriting recorder comprises: recording paper 16 which is removably attached to a micromanipulator 14L assembled to a base 12 and which moves, along with the movement of the micromanipulator in a prescribed direction, on the base in the prescribed direction; writing paper 20 which is arranged on the recording paper and removably attached to the base so as not to move independently of the movement of the recording paper; and carbon paper 18 for copying a character written on the writing paper on the recording paper. When a character is written on the writing paper, by moving the micromanipulator by a prescribed distance each time one stroke of the character is written, the recording paper is made to move by the prescribed distance. Thus, the writing paper whereon the character is written, and the recording paper whereon a stroke waveform curve of the character written on the writing paper is recorded are obtained. <P>COPYRIGHT: (C)2007,JPO&INPIT

Description

  The present invention relates to a stroke order / handwriting recorder for recording the stroke order / handwriting of handwritten characters, and stereo glasses used for discrimination of the stroke order / handwriting of handwritten characters.

  Conventionally, various methods for recognizing handwritten characters have been proposed. For example, Non-Patent Document 1 proposes a character recognition technique that allows the next character to be overwritten without waiting for the character to be confirmed.

The method of character recognition disclosed in Non-Patent Document 1 described above, when a person writes a character, the character is determined by a combination with the lines written so far, according to the inter-line between strokes constituting the character. Then, the recognition is performed while correcting the characters that are sequentially determined for each connection.
"Overwrite character recognition software IP realizing high speed and high accuracy", 2004.10, Toshiba Corporation, www. semicon. toshiba. co. jp / prd / pdf_presen / soft_ip. pdf

  Conventionally, as disclosed in Non-Patent Document 1, various attempts have been made to recognize written characters.

  However, no attempt has been made to determine the stroke order of written characters.

  In addition, an accurate and simple method for handwriting evaluation is not provided.

  An object of the present invention is to provide a stroke order / handwriting recorder capable of recording a stroke order / handwriting, and stereo glasses that can easily and inexpensively determine the stroke order / handwriting of handwritten characters.

One aspect of the stroke order and handwriting recorder of the present invention,
A pedestal,
A micromanipulator assembled to the pedestal;
A recording paper that is detachably attached to the micromanipulator and moves in the predetermined direction on the pedestal as the micromanipulator moves in a predetermined direction;
Written on the recording paper and removably attached to the mount so as not to move regardless of the movement of the recording paper;
Carbon paper for copying characters written on the writing paper to the recording paper;
Comprising
When writing a character on the writing paper, the recording paper is moved the predetermined distance by moving the micromanipulator a predetermined distance for each stroke of the character,
A writing paper on which the character is written and a recording paper on which a stroke waveform curve of the character written on the writing paper is recorded are obtained.

One aspect of the stereo glasses of the present invention is:
One or two lenses,
A framework for holding the lens so that the left and right lens surfaces face each other inward with an angle of a predetermined angle or more from the horizontal axis;
A partition wall for cutting off the input information of photons to both eyes, which is attached only to the side surface of the above-mentioned framework, which is located at the nose at the center of the face,
Comprising
The writing paper on which the character is written and the recording paper on which the stroke waveform curve of the character written on the writing paper is arranged, and they are stereoscopically viewed with the stereo glasses.

  According to the present invention, it is possible to provide a stroke order / handwriting recorder capable of recording a stroke order / handwriting, and stereo glasses that can easily and inexpensively determine the stroke order / handwriting of handwritten characters.

  The best mode for carrying out the present invention will be described below with reference to the drawings.

[First Embodiment]
FIGS. 1A to 1C are diagrams showing a configuration of a stroke order / handwriting recorder 10 according to the first embodiment of the present invention.

  As shown in these drawings, in the stroke order / handwriting recorder 10 according to the present embodiment, the recording paper 16 is attached to the left and right micromanipulators 14L and 14R assembled to the pedestal 12, and the carbon paper 18 ( In FIG. 1C, hatching is shown), the writing paper 20 and the writing guide plate 22 are stacked. Here, the recording paper 16 is attached to the micromanipulators 14L and 14R so as to move on the pedestal 12 in accordance with the operation of the knobs of the micromanipulators 14L and 14R. In this case, the method for attaching the recording paper 16 is not particularly limited as long as it can be removed from the micromanipulators 14L and 14R later. For example, the carbon paper 18 and the writing paper 20 are fixed to the pedestal 12 while both ends of the two sheets are bonded with a double-sided adhesive tape, for example, so that they do not move regardless of the operation of the micromanipulators 14L and 14R.

  In FIG. 1B, the space is drawn as if there is a space between the recording paper 16, the carbon paper 18, and the writing paper 20. This is for easy understanding of the three-layer structure. Actually, there is no space between them, and it goes without saying that characters and figures handwritten on the writing paper 20 are copied onto the recording paper 16 by the carbon paper 18. Further, the writing guide plate 22 is provided with a guide hole 24 having a width of 3.5 cm, and the writing paper 20 exposed through the guide hole 24 is handwritten. The reason why the width of the guide hole 24 is set to 3.5 cm will be described later.

  In addition, on the upper surface of the portion of the pedestal 12 where the writing guide plate 22 is not attached, a first writing point mark 26 is written as a guide for the position when starting writing. Further, a movement amount confirmation mark 28 is also provided so that the movement amounts of the micromanipulators 14L and 14R can be easily confirmed. The marks 26 and 28 are not limited to such black dots and arrows, and may take any form.

  The reason why the left and right manipulators 14L and 14R are arranged is that they can cope with both the right handed person and the left handed person. That is, a person whose right hand is a dominant hand can turn the knob of the micromanipulator 14L with the left hand while writing on the writing paper 20 with the right hand through the left guide hole 24. Conversely, a person whose left hand is a dominant hand can turn the knob of the micromanipulator 14R with the right hand while writing on the writing paper 20 with the left hand through the right guide hole 24.

  Here, the micromanipulators 14L and 14R can move in the horizontal axis up to 3.5 cm corresponding to the width of the guide hole 24 in units of 1 μm in the direction of the other micromanipulator by rotating the knob. Use things. In the present embodiment, such micromanipulators 14L and 14R are used, and the horizontal axis movement operation is performed in units of 1 mm so as not to be too fine. However, the present invention is not limited to this. When the horizontal axis length is manually moved by turning the knobs of the micromanipulators 14L and 14R, the recording paper 16 moves in conjunction with the manipulators 14L and 14R.

  Before explaining the operation of the stroke order / handwriting recorder 10 having such a configuration, in order to help understanding of the present invention, the experiment and discovery made by the present inventor will be briefly described.

  In order to investigate what information the brain gives to the writing act, the inventor records kanji and English (alphabet) strokes using a pressure sensor attached to the five fingers of the hand, The stroke speed was investigated for the characters. As a result, it was found that the stroke waveform curve has personal information of five fingers. As long as the brain is alive, it continues to vibrate a fractal self-similar waveform. The study of handwriting is thought to have evolved from the confirmation of the authenticity of whether or not the handwriting, which is a self-similar waveform, can be identified visually. Since the idea that characters are individuality is well established, the present inventor has attempted frequency analysis of strokes.

  When the letter “a” as shown in FIG. 2A is written while moving the horizontal axis at a constant speed, a stroke waveform curve as shown in FIG. 2B is drawn (in the same figure, The horizontal axis indicates time, and the vertical axis indicates the strength of the pen gripping force for strokes). In this case, the letter a is written at a frequency as low as about 1 Hz. As a result of measurement by a large number of subjects, it has been found that the letter “a” generally produces such a three-curve stroke trajectory. The spectral peak values of the three curves were recorded on average at frequencies of 0.03 Hz, 0.5 Hz, and 1.5 Hz. As shown in FIG. 2 (B), the rising and falling three orbital curves are connected by an interlaced curve and vibrate. Since the interruption time between each stroke is different depending on the individual, from the stroke side, the interruption time of the personal succession corresponds to noise. Thus, the stroke waveform curve is mixed with noise.

  When other alphabets were also examined in the same manner as the letter “a”, there are five types of strokes of 26 alphabets as shown in FIGS. 3A to 3E, assuming that the up curve and the down curve are one cycle. It was determined that it can be classified into a stroke waveform curve. These five types of stroke waveform curves all share invisible phase waveform curves.

  A normal character forms a waveform with strokes, phase and noise, and the stroke waveform curve has one-way of randomness. This stroke waveform curve undergoes coordinate transformation in the brain to become a normal character. That is, people see with their eyes, but they see what they see with their brains. When the correlation between the pen gripping behavior and the brain was examined, the generation of the stroke character, which was a curve, depended on the gripped muscle. Recognize external information seen by the eye in the cerebral cortex. Neural information that moves the muscles and performs the dynamic movement of the writing action is in the prefrontal cortex of the cerebral cortex, and the information on the motor nerves first ignites from the frontal lobe. It takes about 0.2 seconds to propagate to the peripheral nerve / muscle synapse via the motor cortex. A human 140 billion cerebral cells always emit a theta wave of 4 Hz to 7.8 Hz, causing a vibration of a brain potential wave. The hippocampal neurons that manage memory propagate the information to the network. The current interpretation of physiology has modeled that theta waves are the source of vibrations that activate nerves and muscles (Mehta MR, et al., Nature, 417, 741-746, 2002). One of the oscillations is a theta wave of a brain potential wave that occurs mainly in childhood. The stroke information shares an invisible waveform curve and an invisible phase code waveform, and handwritten characters are configured by combining a plurality of strokes. The phase code waveform is stored in the hippocampus in the temporal lobe of the brain (Ferbinteanu J, Shapiro ML, Neuron, 40 (6), 1227-1239, 2003). From this, it is considered that the stroke waveform curve is very likely to be a part of the vibration waveform of the brain. Therefore, as described with reference to FIG. 4 and FIG. 5 below, as a result of an experiment of coordinate conversion to a waveform curve having an invisible phase that appears in a stroke, a correct character that can be recognized by the naked eye from the stroke waveform curve is obtained. Easily restored. In this way, since characters that share an invisible phase code waveform have appeared, the characters that can be visibly read have appeared, so even if the strokes become more cluttered, the strokes do not lose information generated from the brain. It became proof that I kept it.

  The stroke curve of stroke behavior varies from person to person. Just as the structure of cells with a genome program differs from person to person, the recognition of joints between strokes showing self-similar waveforms around 1 Hz is short-time and some are long-time. . Therefore, the interlaced waveform curve in the stroke information is full of noise. From recording vibration information, it is also one method to remove noise by frequency spectrum analysis, but in the case of English letters, if the noise is eliminated from the continuous boundary between strokes and noise, the directionality of the curve will be lost. The coordinate axis disappears and turns into a meaningless curve. Therefore, the present inventor has devised a noise removal technique that makes use of the original coordinate axis direction. Here, it expresses the reciprocal phenomenon of the hypothesis that “the phase of the stroke is a compound curve of an arbitrary circular orbit and an arbitrary ellipse because the two-circularly polarized light that can be distinguished by the light phenomenon cannot be applied” and the phase and noise elimination To do.

  That is, as shown in FIG. 4A, the pin 32 is set on the stroke waveform curve of the paper 30 on which the stroke waveform curve depicting the a-shaped stroke is drawn. Then, the direction of stroke is determined, and coordinate conversion is performed for each stroke. That is, as shown in FIG. 4B, by viewing the paper 30 from an oblique direction, the “a” normal character is restored from the stroke. By performing such coordinate conversion, the depth stereoscopic view of innumerable invisible phases included in the stroke becomes possible. As a result, the “a” orthographic character is recognized. Therefore, the information source of strokes ignited in the brain was transmitted to the nerve and muscle synapses at the end, and as a result, the phase transition of the topology was dynamically performed from muscle to stroke. Even if there is an increase in entropy at the time of phase transition (Missinski M and Babert S, Nakano and Sakaguchi translation, Perceptron, personal media), the vibration information of the characters derived from the brain remains on the stroke curve without being erased. Can recognize stroke order and handwriting.

  Further, as shown in FIG. 5A, an arbitrary waveform portion that is considered to be a relay is determined by defining a coordinate axis that is the direction of the curve on the stroke waveform curve written on the transparent paper 34. Then, fold lines 36-1 to 36-3 are set there, and when folded like a origami for each stroke, as shown in FIG. Restores stroke order and handwriting. The stroke waveform curve of all 26 alphabetic characters shown in FIG. 3 includes a phase unique to each character as in the case of the a letter in FIGS. 4 and 5. Paradoxically, since the stroke includes the phase, the normal character is restored by the coordinate axis conversion of the stroke waveform curve.

  The above two methods involve artificial artifacts, but the next writing method is a natural handwriting state. When a normal character and a stroke waveform curve superimposed on a plane are written by writing at the same time and arranged side by side as shown in FIG. 6 (A), a three-dimensional depth stereoscopic view is obtained. It develops in the brain. From the two writings of the normal letter and the stroke waveform curve, the waveform curve with the phase is re-recognized by the brain and fused to the stereoscopic image of the stroke order and handwriting. That is, the left side of FIG. 6A is a normal character, and this is confirmed by closing one eye. Next, the stroke waveform curve shown on the right side of FIG. 6A is confirmed with the other eye. Then, open both eyes and slowly converge the real image of both eyes on the horizontal axis of the crossing eye in the integrated field in the brain. When the two real images are fused in this way, the third central virtual image can be seen near the nose at the center of the right eye and the left eye. Since they are integrated via the corpus callosum located in the middle of the right and left brain, the central fusion image in the brain is a virtual image and cannot be fixed like a still image. When observing the details of the fusion virtual image in the brain that has the intention to move slowly in the brain, the strokes emerge in sequence for each stroke, like the step lines of the rising and falling of the uneven bars. Cross, with the curves of relief, sinking, relief. The change in stroke direction can be identified by the ups and downs. That is, the stroke curve written on the flat paper becomes a depth visual image of the ups and downs curve showing a step difference in the brain. Tracing down the stairs in the direction of the lower curve from the upper curve results in a stroke order. The ups and downs in the strokes of the character strokes by the fusion image in the brain (Nevatia R, translated by Nan Minami, image recognition and image understanding, Keigaku Publishing) is consistent with the stroke order integrated image of the memory re-recognized in the brain. The stroke order / handwriting recorder 10 according to the first embodiment enables writing at the same time of a normal character and a stroke waveform curve as shown in FIG.

  Hereinafter, the operation of the stroke order / handwriting recorder 10 according to the first embodiment will be described.

  In the present embodiment, as described above, the recording paper 16, the carbon paper 18, and the writing paper 20 have a three-layer structure, and only the corresponding recording paper 16 is horizontally placed in accordance with the operation of the knobs of the micromanipulators 14L and 14R. Move in the axial direction. The knobs of the micromanipulators 14L and 14R are operated for each stroke. That is, the writer writes the writing paper 20 exposed through the guide hole 24 of the writing guide plate 22 with the right hand as usual and turns the knob of the micromanipulator 14L with the left hand for each stroke. Then, the recording paper 16 is moved 1 mm in the direction of the other micromanipulator 14R to move to the next stroke writing. For example, when writing “right” with the right hand, first write “no” as the first character stroke, move the recording paper 16, and then write “one” as the second character stroke. Then, the recording paper 16 is moved, and then the character “|” on the left side of the “mouth” is written as the third character stroke, the recording paper 16 is moved, and so on. By doing so, it is possible to accurately draw the normal stroke curve information written on the writing paper 20 as the stroke waveform curve on the recording paper 16.

  The width of the writing range of the writing paper 20 is limited to 3.5 cm by the guide hole 24 so that the pressure of the pen gripping action can be smoothly transmitted to the writing paper 20. In this way, by limiting the writing range, mixing of noise other than the stroke curve is reduced. Further, since the width of the writing range of the writing paper 20 is limited to 3.5 cm, as described above, the horizontal axis moving distance of the recording paper 16 is 3.5 cm in units of 1 μm by the micromanipulators 14L and 14R. Can be moved up to.

  In this manner, the result of writing the hiragana of “Aiueo” by the stroke order / handwriting recorder 10 according to the first embodiment is shown in FIG. 6A, and the result of writing the katakana of “Kakikukeko” is shown in FIG. 6 (B).

  At first glance, FIGS. 6A and 6B show similar handwriting that cannot be distinguished with the naked eye. The strokes arranged on the left side of FIGS. 6A and 6B are normal characters written on the writing paper 20, and the strokes arranged on the right side are aggregates of stroke curves obtained by moving the recording paper 16 by 1 mm on the horizontal axis ( Stroke waveform curve). When the writing paper 20 and the recording paper 16 are arranged as shown in the figure and the two sheets are viewed in a three-dimensional depth stereoscopic view with both eyes, the writing order of the characters appears as a virtual image of the central fusion image around the eyebrows. . That is, strokes can be viewed in depth (three-dimensional depth stereoscopic view) in the brain, as strokes are sinked or floated like parallel bars. In the present embodiment, since the first writing of the letter is recorded on the writing paper 20, the two writing papers 20 and the recording paper 16 are arranged so that the end point of the sinking is the final writing. If the first to last strokes are identified in the brain, the stroke order can be recognized in the brain. If the left and right sides of the two lines of the writing paper 20 and the recording paper 16 are exchanged, the floating image is reversed. In the katakana of FIG. 6B, since the strokes are linear approximations, the interlaces between strokes become stepped straight lines, and the stepped lines are inserted in a clear step shape, so that the stroke order can be traced carefully.

  That is, kanji is mainly composed of strokes of straight waveform, and strokes of alphabet are curved waveform. The inter-stroke curve between strokes is a brain wave break time considering the situation of writing the next straight line, but it is noise for strokes. The stroke order / handwriting recorder 10 according to the present embodiment converts the space-time system by adding a certain gap to the time on the horizontal axis, and the time and space are the same as shown in FIGS. 6 (A) and 6 (B). Get a visible waveform. The distance of horizontal convergence that enables the three-dimensional solids to be viewed in different depths with both eyes, that is, the distance between two points on the horizontal axis that senses the horizontal is a large width from 1 μm to about 3.5 cm. Whether it is 1 μm in diagonal lines or 3.5 cm between two points, the brain can perform uneven depth stereoscopic vision so that the distance between strokes is the same. Therefore, regardless of whether the horizontal axis distance is 1 μm or 1 cm, the depth perception of the three-dimensional depth stereoscopic brain is a recognition process of the brain at substantially the same distance. Therefore, in this embodiment, the micromanipulators 14L and 14R are used. That is, as described above, the horizontal movement of the recording paper 16 is set to 1 mm so as not to be too fine. The maximum convergence distance of one eye is a limit value of 3.5 cm. Whether the horizontal distance of the line of sight is small or large, the depth stereoscopic vision can only be sensed almost similar.

  Even if the same copy paper is arranged in parallel on the horizontal axis, the center fusion image remains a flat image only by the parallel arrangement, and a three-dimensional image with different levels cannot be obtained. Only a stroke in which one of the two superimposed papers is written with a normal positive character and the other one is written with a distance shifted by a certain amount of time only in the horizontal direction causes a depth view of the three-dimensional center fusion image.

  The naked eye can be seen with objects larger than about 0.4 μm under the wavelength of visible light. The wavelength of light that collides with an object is a factor that determines spatial resolution. The length of 1 μm of the horizontal and horizontal axis movement of the stroke could be discriminated in depth. However, human eyes have not completed the function for 3D (Rogers BJ, Nature, 349, 365-366, 1991). Both eyes can confirm the four directions of horizontal convergence and horizontal spread of the crossing eye, and upward and downward rotation of the upper eye using the vertical axis. The movements of the line of sight and the viewing angle are collectively referred to as a verging angle. No literature has been reported that has obtained results that are effective in determining the distance of depth vision only by vertical and vertical movements. Human eyes are laid out with a horizontal separation of about 6 cm to 7 cm, and the function of both eyes is typically not scientifically identical. Therefore, it is impossible to see the depth with only one eye. Correspondingly, the difference in the horizontal axis between the positions of both eyes and the difference in the horizontal axis affect the target information for depth vision in a three-dimensional space. In the present embodiment, a three-dimensional depth stereoscopic view of a staggered stroke is made possible by a waveform curve that moves only the horizontal axis of the stroke. When three-dimensional depth stereoscopic viewing of a stroke is performed with the naked eye, the writing paper 20 and the recording paper 16 are juxtaposed within 7 cm, which is twice as large as 3.5 cm for one eye, on the horizontal axis. The vertical axis is not affected by the distance of vertically long letters as shown in FIGS. The computer's 3D creation software gives equal division of mathematics to horizontal, vertical and depth distances (Cumming BG, et al. Nature 349, 411-413, 1991). However, as described above, the brain can perform three-dimensional depth stereoscopic viewing only with a shift of 1 μm or more on the horizontal and horizontal axes. Stroke and phase three-dimensional depth stereoscopic view catches a slight comparison value of horizontal, horizontal versus vertical, and vertical axes as a sense of distance in depth vision. This is a result contrary to the number theory that brain function is understood by perceptron.

  FIG. 7 is a perspective view showing the configuration of the handy stereo glasses 38 as the first embodiment of the stereo glasses of the present invention. There are people who cannot perform 3D depth stereoscopic viewing with the naked eye, and the handy stereo glasses 38 enable such people to perform 3D depth stereoscopic viewing.

  In Europe and the United States, 3D depth stereoscopic vision has been popular since the second half of the 18th century, and stereo glasses have been made and used regularly as one of the props for tea. However, it is necessary to consider a slight difference in individual visual acuity for three-dimensional depth stereoscopic viewing of the subtle horizontal / horizontal movement of the stroke order / handwriting recording of the present invention. Such handy stereo glasses 38 are preferably used.

  In other words, the handy stereo glasses 38 are equipped with a lens 42 on each of the left and right lens frames 40, and the lens surfaces of the lenses 42 face each other inward at an angle of 6 degrees or more from the horizontal axis. A frame 44 constitutes the frame. The sighted person and the spectacle wearer may use one lens 42 as a presbyopic convex lens, and the other lens 42 may be transparent or absent. In this way, the unbalanced state of vision asymmetry can easily stimulate the visual cortex of the occipital lobe and induce a central fusion image in the corpus callosum. Further, since the frame is formed by the thin bar frame 44, a sufficient amount of light can be taken in and a fine dot sequence can be identified.

  Further, the handy stereo glasses 38 are provided with a partition wall 46 for isolating the eyes of both eyes only on the side surface located at the nose at the center of the face, as indicated by hatching in the drawing. That is, in order to completely divide the left image and the right image of the two sheets of paper that are input to the eyes into two, a partition wall 46 that cuts off photon input information to both eyes is provided.

  The color of the partition wall 46 may match the paper color of the recording paper 16 and the writing paper 20, but is preferably white. That is, the eye can distinguish only the white and black wavelengths when the optical wavelength of the visual input is imaged on the retina. There are only two types of rod neurons and cone neurons in the retina, and the light energy of white wavelength and black wavelength is converted into action potential vibration waveform of electrical energy, and the back of the brain Send to the primary visual cortex in the leaves. The information conversion time in the retina is the retina molecular structure conversion speed of 1/5 trillion seconds. When the color wavelength is directly input to the retina, the color wavelength is selected in the Mach band portion of the photon, and its spectrum becomes an action potential and is sent to the brain integration area. The Mach band is represented by a logarithmic graph. When the logarithmic gland approaches 0 to 1, the line becomes crowded, and at the end point of 1, the black line becomes an aggregate. That is, the color wavelength can be identified by the Mach band. All engineering machines use and apply the Mach band. In the 4th and subsequent higher order fields of the brain, the color wavelength is converted from white and black action potential information to color recognition. Considering severe color blindness from this principle, color blindness can recognize only white and black. In addition, white reflects photons, so that the division information of the left and right eyes is reliably transmitted to the corpus callosum. Therefore, it is desirable that the partition wall 46 be white.

  By using such handy stereo glasses 38, anyone can easily perform a three-dimensional depth stereoscopic view.

  Using the stroke order / handwriting recorder 10 (and possibly handy stereo glasses 38) as described above, characters written in different stroke orders as shown in FIGS. By viewing, the stroke order can be clearly determined.

  Thus, from FIGS. 6A and 6B and FIGS. 8A and 8B, a slight difference in depth viewing distance due to horizontal axis movement recognized by the brain can be realized. Regardless of the degree of freedom in which the ratio of the distance between the horizontal and horizontal axes of the normal character and the number of strokes is large and small, how to perceive depth can be determined and recognized. It can be confirmed that the three-dimensional depth stereoscopic vision of the brain is identified by the distance limit of the extent of FIGS. 6 (A) and 6 (B) and FIGS. 8 (A) and 8 (B). The depth vision is not limited to infinite information like the horizontal / horizontal axis and the vertical / vertical axis, but can be felt by being limited to a finite range. Accordingly, in the result of characters and stroke information written on a flat sheet of paper, a slight difference between the horizontal abscissa point and the vertical ordinate point expresses the sense of distance in the depth of the brain.

  The phenomenon that indirectly supports the present invention can be confirmed from the phenomenon that the depth vision of the high-definition digital TV becomes easy. The HD-compatible x-axis is the number of 1920 pixels, the y-axis is the number of 1080 pixels, and the z-axis is the number of three pixels of the three primary colors corresponding to red, blue, and green light. Both eyes of the human being are engineered to give the TV screen a sense of realism with a horizontal axis distance of about twice the vertical axis, and we enjoy the depth view. There is no correlation between the human visual sense and the number of pixels of engineering, but the sense of depth vision seen by both eyes is the same. Expressing this mathematically, the curve of the distance between two points is one-dimensional, but the plane is two-dimensional. There are an infinite number of fractal dimensions in the gaps between the two-dimensional to one-dimensional and the one-dimensional to zero-dimensional points. The evolution of the human brain has introduced the identification of “depth vision” of “certain sense” into the recognition of three-dimensional depth vision, so both eyes are not shaped up to depth vision. If this hypothesis derived from the present invention is taken, handwriting can be classified as described later.

[Second Embodiment]
Next, a second embodiment of the present invention will be described.

  The stroke order / handwriting recorder 10 according to the first embodiment is a digital system because a one-way manual manipulator is set.

  In contrast, the present embodiment is an analog stroke order / handwriting recorder.

  This analog stroke order / handwriting recorder has the same principle as the digital stroke order / handwriting recorder 10, but uses an electric recorder instead of manual movement by a manipulator. There are many types of such electric recorders, from the continuity of fine movement of 0.5 μm per minute to the high speed with the speed of moving recording paper of 1 cm per second. In the present embodiment, an electric recorder that moves on a sheet width of 1 mm in 3 to 10 seconds is used. The immovable portions corresponding to the writing paper 20 and the carbon paper 18 in FIG. 1B are fixed to the outside of the electric recorder. By using this analog stroke order / handwriting recorder, irreversible strokes are drawn on the recording paper 16 by one-way horizontal and horizontal axis movements. This analog stroke order / handwriting recorder is an effective recorder for analyzing a stroke waveform curve that fits within 5 strokes, such as the above-mentioned alphabetical alphabet.

  FIG. 6C shows an example in which the English character “ABCDE” is written using this analog stroke order / handwriting recorder. In this case, all strokes are waveform curves, but the waveform information for each stroke and the noise of the splicing time of the stroke and the next stroke include the written information from the human brain. Furthermore, the writing information of the waveform curve includes the phase. In the figure, the left side is a normal character recorded on the writing paper 20, and the right side is an individual character curve curve information recorded on the recording paper 16. Using the above-mentioned handy stereo glasses 38 with the naked eye or making these two images in a three-dimensional depth stereoscopic view and producing a center fusion virtual image in the brain, the waveform curve becomes a floating image that looks like a bent hairpin curve. Become.

  That is, the analog recording curve recorded on the recording paper 16 is a mixture of a phase curve and noise, and the three-dimensional depth stereoscopic view becomes a complex curve like a hairpin. By staring at the waveform curve of the three-dimensional depth stereoscopic vision in the brain, the stroke order of the start point and the end point according to the first and last strokes can be clearly identified. Slight horizontal and horizontal movements are stroked in stroke order.

[Third Embodiment]
In the first and second embodiments described above, 3D depth stereoscopic vision for stroke order recognition has been described. However, whether or not the 3D depth stereoscopic vision is not only the stroke order but the same person's writing, that is, Handwriting can also be judged.

  For example, when handwriting judgment is performed in the three-dimensional depth stereoscopic view of the present invention using two of address letters such as letters and postcards from the same person, one of which is a regular letter and the other is a stroke, the following type 1 is obtained. If even part of Type 4 appears in the depth view, it can be recognized that it was written by the same person. If it is the handwriting of another person, the strokes of the strokes are different and the fusion images in the brain do not match. The fusion image in the brain becomes unstable.

  In addition, since the three-dimensional depth stereoscopic view works effectively for a letter such as a stamped or stamped printed letter, it is possible to identify whether or not they are the same.

  Therefore, a determination method different from the conventional OCR identification can be provided.

  Here, the types of strokes seen in the three-dimensional depth stereoscopic view of the handwriting are as follows.

  Type 1: A type in which the stroke order appears in all strokes. That is, the event includes all of the following types 2 to 4.

  Type 2: For example, as shown in FIGS. 9A and 9B, the three-dimensional depth stereoscopic view remains a flat image with the same copy type.

  Type 3: For example, a type in which a waveform curve emerges as shown in FIG. 9C, or a type in which a waveform curve sinks as shown in FIG. 9D.

  Type 4: For example, as shown in FIG. 9E, half of the waveform curve (for example, the upper half) is a copy type and the latter half (for example, the lower half) is mixed.

  In FIGS. 9A to 9E, spiral lines are shown. However, since the lines are two-dimensional, they are mathematical, since they are recognized and identified by the brain, whether they are character diagrams or figures. Is synonymous.

  Traditionally, stroke order and handwriting have been defined as different things. However, the stroke order can be read by handwriting of handwritten characters by three-dimensional depth stereoscopic vision. That is, the handwriting can be expressed by a diagram of “stroke order = correct letter + erroneous letter + individual characteristics”. Here, the individuality characteristic is a so-called wrinkle. 9A to 9E express all the above expressions.

  Ecological behavior is defined as “time = space”. In other words, if time is decided, the space is decided naturally, and vice versa. From here, the “alibi” of human behavior is established. Therefore, it is impossible for a person to move instantaneously.

  The present inventor has also confirmed that a three-dimensional depth stereoscopic view can be performed from a face photograph 26 years ago and a current face photograph by experiments with a large number of subjects. In addition, it was confirmed that “two handwritten characters can be stereoscopically viewed in three dimensions” with the address of a past letter several decades ago and the current handwritten character of the same person.

  On the other hand, it was confirmed that a character of a certain handwriting and a character imitated by another person become a three-dimensional depth stereoscopic image that is not any of the above type 1 to type 4. In addition, the Go filling problem and the answer Go paper are each cut out from newspaper magazines, and the two cut out are placed side by side in a three-dimensional depth view. It was also confirmed that the phenomenon of light and instability was caused by causing a phenomenon of ups and downs in the brain. Obviously, a fusion image that cannot be found in the above types 1 to 4 appears in the brain.

  In this way, the stroke order can be seen even when time ≠ space. This is the result of the fusion of time and space with the phase inscribed in the stroke.

  Stroke order also provides another important piece of information. The stroke order and handwriting recorders described in the first and second embodiments are time and space movements that move only several millimeters along the horizontal and horizontal axes. At present, a large number of post office staff, bankers, and judges are conducting daily appraisals in search of authenticity of handwriting and stamps. The appraisal method is based on two horizontal and horizontal axes. Each of the two pieces is carefully compared and stored in the brain for determination. Never put two on the vertical / vertical axis. That is, both eyes are functioning with a vergence angle on the horizontal axis. A 1 μm point can be identified by a recognition circuit in the brain that is set up for convergence with 3.5 cm movement. Handy stereo glasses 38 identify these instantaneously. It is thought that the hologram-like action that transcends time and space is in the brain. Therefore, it can be said that the above types 1 to 4 are intracerebral models that represent a brain function identification mechanism.

  As explained above, the stroke order and handwriting records can be viewed only by moving the horizontal and horizontal axes.

  In addition, this invention is not limited to embodiment mentioned above, Of course, a various deformation | transformation and application are possible within the range of the summary of this invention.

FIGS. 1A to 1C are a perspective view, a cross-sectional view, and a plan view showing part of the stroke order / handwriting recorder according to the first embodiment of the present invention. FIG. 2A is a diagram showing a letter “a” handwritten, and FIG. 2B is a diagram showing its stroke waveform curve. FIGS. 3A to 3E are diagrams showing the stroke waveform curves of English letters. FIG. 4A is a diagram showing a state where a pin is set on the stroke waveform curve, and FIG. 4B is a diagram for explaining coordinate conversion for restoring a normal character from the stroke. FIG. 5A is a diagram showing a stroke waveform curve written on transparent paper, and FIG. 5B is a diagram for explaining coordinate axis conversion of transparent paper. FIG. 6A is a diagram showing the result of writing the hiragana of “Aiueo” by the stroke order / handwriting recorder according to the first embodiment, and FIG. 6B is the result of writing the katakana of “Kakikukeko”. FIG. 6C is a diagram showing a result of writing the alphabet “ABCDE” by the stroke order / handwriting recorder according to the second embodiment of the present invention. FIG. 7 is a perspective view showing the configuration of handy stereo glasses as a first embodiment of stereo glasses of the present invention. FIG. 8A is a diagram showing a result of writing the “right must-fly” kanji by the stroke order / handwriting recorder according to the first embodiment, and FIG. It is a figure which shows the result of having written the kanji in another stroke order. 9A and 9B are diagrams showing a spiral in which a stroke type 2 appears, and FIGS. 9C and 9D are diagrams showing a spiral in which a stroke type 3 appears, respectively. ) Is a diagram showing a spiral in which stroke type 4 appears.

Explanation of symbols

    DESCRIPTION OF SYMBOLS 10 ... Writing order and handwriting recorder, 12 ... Base, 14L, 14R ... Micromanipulator, 16 ... Recording paper, 18 ... Carbon paper, 20 ... Writing paper, 22 ... Writing guide board, 24 ... Guide hole, 26 ... First writing point mark 28 ... Movement amount confirmation mark, 30 ... Paper, 32 ... Pin, 34 ... Transparent paper, 36-1 to 36-3 ... Folding line, 38 ... Handy stereo glasses, 40 ... Lens frame, 42 ... Lens, 44 ... Bar frame, 46 ... partition wall.

Claims (4)

A pedestal,
A micromanipulator assembled to the pedestal;
A recording paper that is detachably attached to the micromanipulator and moves in the predetermined direction on the pedestal as the micromanipulator moves in a predetermined direction;
Written on the recording paper and removably attached to the mount so as not to move regardless of the movement of the recording paper;
Carbon paper for copying characters written on the writing paper to the recording paper;
Comprising
When writing a character on the writing paper, the recording paper is moved the predetermined distance by moving the micromanipulator a predetermined distance for each stroke of the character,
A stroke order / handwriting recorder comprising: a writing paper on which the characters are written; and a recording paper on which a stroke waveform curve of the characters written on the writing paper is recorded.   The stroke order / handwriting recorder according to claim 1, further comprising a writing guide plate arranged on the recording paper for defining a writing range of characters on the writing paper. One or two lenses,
A framework for holding the lens so that the left and right lens surfaces face each other inward with an angle of a predetermined angle or more from the horizontal axis;
A partition wall for cutting off the input information of photons to both eyes, which is attached only to the side surface of the above-mentioned framework, which is located at the nose at the center of the face,
Comprising
Stereo glasses characterized by arranging a writing paper on which characters are written and a recording paper on which a stroke waveform curve of the characters written on the writing paper is arranged, and stereoscopically viewing them with the stereo glasses.   The stereo glasses according to claim 3, wherein a color of the partition wall is white.

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