WO2016114064A1

WO2016114064A1 - Time and space diagram, information processing device, and program

Info

Publication number: WO2016114064A1
Application number: PCT/JP2015/085310
Authority: WO
Inventors: 開知杉山
Original assignee: 開知杉山
Priority date: 2015-01-13
Filing date: 2015-12-17
Publication date: 2016-07-21
Also published as: JPWO2016114064A1; JP6222881B2

Abstract

[Problem] To provide a time and space diagram with which it is possible to visually perceive the relationship between time and the position of a plurality of solar system celestial bodies, and to provide an information processing device and a program that display an image of the time and space diagram. [Solution] A time and space diagram 1, etc. that arranges: the orbits 11, etc. of a plurality of solar system celestial bodies 10, etc.; the positions of the plurality of celestial bodies 10, etc. on the orbits 11, etc.; time information that corresponds to the positions of the plurality of celestial bodies 10, etc. on the orbits 11, etc. and that includes at least calendar information; and a ring-shaped region 12, etc. that is bordered by a circle that has a radius that is the smallest distance from the orbit of a prescribed celestial body 10, etc. from among the plurality of celestial bodies 10, etc. to the sun and by a circle that has a radius that is the greatest distance from said orbit to the sun. The prescribed celestial body 10, etc. from among the plurality of celestial bodies 10, etc. is arranged in positions that demonstrate, on a prescribed reduced scale, the actual distances from the sun to the prescribed celestial body 10, etc. or distances that are close to the actual distances. The positions of each of the celestial bodies from the sun are expressed by information on an angle from a reference direction that heads in a prescribed direction from the center of the sun.

Description

Space-time diagram, information processing apparatus and program

The present invention relates to a space-time diagram representing time and space, and an information processing apparatus and program for displaying the space-time diagram.

Conventionally, there are various types of calendars (also called calendars) organized so that the flow of time can be counted in units such as years, months, weeks, and days. For example, in Patent Document 1, a date and twenty-four milestones corresponding to the date are arranged and displayed in an arc shape, and a mark indicating the rotation of the earth and a mark indicating the appearance of the moon are displayed on the date display portion. A calendar that is displayed in association with is disclosed.

JP 2008-207407 A

However, in the calendar described in the above-mentioned Patent Document 1, it is only necessary to know the position of the earth centered on the sun and the information such as the date and twenty-four seasonal air corresponding to the position. I don't know the relationship between location and time. Knowing the relationship between the position of multiple celestial bodies in the solar system and time, you can deepen your understanding of the history of the calendar and astronomy.

The present invention has been made in view of the above-described circumstances, and displays a spatiotemporal diagram that can visually recognize the relationship between positions of a plurality of celestial bodies in the solar system and time, and an image of the spatiotemporal diagram. An object is to provide an information processing apparatus and a program.

In order to achieve the above object, in the space-time map according to the present invention, the orbits of a plurality of celestial bodies in the solar system, the positions on the orbits of the plurality of celestial bodies, and the positions on the orbits of the plurality of celestial bodies and at least a calendar The predetermined celestial body of the plurality of celestial bodies is arranged at a position where the actual distance from the sun to the predetermined celestial body or a distance close to the distance is indicated at a predetermined scale. A ring-shaped region surrounded by a circle whose radius is the closest distance to the sun and a circle whose radius is the furthest distance to the sun in the orbit of the predetermined celestial body, The position is represented by information on an angle from a reference direction in a predetermined direction from the center of the sun.

Also, the moon's orbit around the earth and the position of the full moon and new moon may be arranged. The orbits of multiple celestial bodies include the orbits of Mercury, Venus, Earth, Moon, Mars, Jupiter, Saturn, Uranus, Neptune, and Pluto. Including, Mercury's orbit, Venus's orbit, Earth's orbit, Moon's orbit, and Mars's orbit are the actual distances from the sun to each celestial body in the solar system from the perspective of looking at the solar system from above the Earth's North Pole. Or, it is placed at a position close to that distance on a scale of 1 trillion, and each of Jupiter's orbit, Saturn's orbit, Uranus's orbit, Neptune's orbit, and Pluto's orbit are different from the corresponding scale. It may be represented by an orbit that is shown to scale and is closer to the sun than the actual orbit.

The information processing apparatus according to the present invention displays a spatio-temporal image on a display device.

A clock unit that identifies the current time; and a control unit that displays images of all or some of the celestial bodies at positions corresponding to the current time identified by the clock unit. It may be configured. The control unit may display an image of the celestial object selected by the user. In addition, the control unit may enlarge and display an image of an area in the space-time diagram selected by the user.

The program according to the present invention is characterized by causing an information processing apparatus to execute processing for displaying an image of a spatiotemporal diagram on a display device.

In addition, on the information processing device, a time specifying process for specifying the current time and an image of all or some of the celestial objects at a position corresponding to the current time specified by the time specifying process are displayed. Display processing to be executed. The display process may display an image of a celestial object selected by the user. In the display process, an image of a region in the spatiotemporal diagram selected by the user may be enlarged and displayed.

According to the present invention, the spatio-temporal view arranges orbits of a plurality of celestial bodies in the solar system, positions on the orbits of the plurality of celestial bodies, and time information corresponding to these positions. You can know the relationship between the position of celestial bodies and time, and deepen your understanding of the history of the calendar and astronomy.

It is a figure which shows the time-space figure of 1st Embodiment. It is an enlarged view which shows the area | region of 1/4 of the space-time figure shown in FIG. FIG. 3 is an enlarged view showing a partial region of the region shown in FIG. 2. It is a figure which shows the time-space figure of 2nd Embodiment. It is a block diagram which shows the structure of the information processing apparatus of 3rd Embodiment. It is a figure which shows the example of a display of the image displayed on a display apparatus. It is a flowchart which shows the flow of the process which the information processing apparatus of 3rd Embodiment performs. It is a block diagram which shows the structure of the information processing system of 4th Embodiment. It is a table | surface which shows the data showing the relationship between the sun and a planet in a solar system.

Hereinafter, embodiments of the present invention will be described with reference to the drawings. However, the present invention is not limited to this. Further, in the drawings, in order to describe the embodiment, the scale may be appropriately changed and expressed, for example, with a part enlarged or emphasized.

<First Embodiment>
FIG. 1 is a diagram showing a spatio-temporal diagram 1 of the first embodiment. FIG. 2 is an enlarged view showing a quarter of the space-time diagram 1 shown in FIG. FIG. 3 is an enlarged view showing a part of the region shown in FIG. 1 to 3, when the paper surface is viewed in the direction of the sign in the figure, the right direction of the paper surface is the + X axis direction, the left direction of the paper surface is the -X axis direction, and the upward direction of the paper surface is the + Y axis direction. The downward direction on the paper surface is taken as the -Y axis direction. Further, the direction from the center point O toward the −X axis direction is set as a reference direction, and an angle of 0 ° to 360 ° is attached counterclockwise from the reference direction (see FIGS. 2 and 3). That is, the −X axis direction is 0 degree (or 360 degrees), the −Y axis direction is 90 degrees, the + X axis direction is 180 degrees, and the + Y axis direction is 270 degrees.

Note that the region shown in FIG. 2 is the lower left quarter region (region indicated by the arrow in FIG. 1) of the spatiotemporal diagram 1 shown in FIG. 3 is a region from 0 degrees to 30 degrees in the region illustrated in FIG. 2 (region indicated by an arrow in FIG. 2).

The spatio-temporal map 1 shown in FIGS. 1 to 3 is a diagram illustrating the relationship between the position of the solar system celestial bodies (planets, dwarf planets, and satellites) and time on a plane. That is, FIG. 1 is a diagram in which the orbits of a plurality of celestial bodies in the solar system, the positions on the orbits of the plurality of celestial bodies, and the time information corresponding to the positions on the orbits of the plurality of celestial bodies are arranged on a plane. is there. As shown in FIG. 1, the spatio-temporal diagram 1 shows planets revolving around the sun (Mercury 10, Venus 20, Earth 30, Mars 50, Jupiter 60, Saturn 70, Uranus 80, as a plurality of celestial bodies in the solar system. Neptune 90), a dwarf planet (Pluto 100) revolving around the sun, and a moon (moon) orbiting the earth are depicted. The center point O in the spatiotemporal diagram 1 corresponds to the position of the sun (the center position of the sun). In addition, the spatiotemporal diagram 1 depicts each celestial body from the viewpoint of viewing the solar system from far above the north pole of the earth 30 (above the earth axis of the earth 30).

Mercury 10 is a planet orbiting closest to the Sun, and moves on an elliptical orbit (hereinafter referred to as Mercury's orbit 11) having a central point O as one focal point. In the spatiotemporal diagram 1, a ring-shaped region surrounded by a circle having a radius closest to the sun and a circle having a radius farthest from the sun on the Mercury orbit 11 is defined as an orbital region 12 of Mercury 10. I'm drawing. By drawing the orbital region 12 in the spatiotemporal diagram 1, the fluctuation width of the orbit of Mercury 10 can be easily recognized. In the spatiotemporal diagram 1, the position of the perihelion 13 (that is, the point closest to the sun) of Mercury 10 and the position of the far day point 14 (that is, the point farthest from the sun) are also drawn. ing. The position of the white triangle symbol is the position of the perihelion 13 of Mercury 10, and the position of the black triangle symbol is the position of the perihelion 14 of Mercury 10. As shown in FIG. 1, the perihelion point 13 is at a position of about 80 degrees on the Mercury orbit 11, and the far day point 14 (that is, the point farthest from the sun) is about about the Mercury orbit 11. The position is 260 degrees.

Venus 20 is a planet that goes around the sun next to Mercury 10. Similarly to Mercury 10, Venus 20 moves on an elliptical orbit (hereinafter referred to as Venus orbit 21) having a central point O as one focal point. The Venus orbit 21 is a circular orbit. As for Venus 20, a ring-shaped region surrounded by a circle having a radius closest to the sun and a circle having a radius farthest from the sun in the Venus orbit 21 is depicted as an orbital region 22 of Venus 20. . By drawing the orbital region 22 in the spatiotemporal diagram 1, it is possible to easily recognize the fluctuation width of the orbit of Venus 20. As shown in FIGS. 1 to 3, the orbital region 22 of Venus 20 is narrower than the orbital region 12 of Mercury 10. In the spatio-temporal diagram 1, the position of the perihelion 23 and the position of the far-day point 24 of Venus 20 are also drawn. The perihelion point 23 is at a position of about 130 degrees on the Venus orbit 21, and the far day point 24 is at a position of about 310 degrees on the Venus orbit 21.

The Earth 30 is a planet that goes around the Sun after Venus 20. The earth 30 also moves on an elliptical orbit (hereinafter referred to as the earth orbit 31) having the central point O as one focal point. As for the earth 30, a ring-shaped region surrounded by a circle having a radius that is the distance closest to the sun in the earth orbit 31 and a circle having a radius that is the distance farthest from the sun is depicted as an orbital area 32 of the earth 30. . By drawing the orbit region 32 in the spatio-temporal diagram 1, it is possible to easily recognize the fluctuation width of the orbit of the earth 30. As shown in FIGS. 1 to 3, the orbital region 32 of the earth 30 is narrower than the orbital region 12 of Mercury 10 and wider than the orbital region 22 of Venus 20. In the spatiotemporal diagram 1, the position of the perihelion 33 and the position of the perihelion 34 of the earth 30 are also drawn. The perihelion point 33 is at a position of about 100 degrees on the earth orbit 31, and the far day point 34 is at a position of about 280 degrees on the earth orbit 31.

As shown in FIGS. 1 to 3, the spatiotemporal diagram 1 also depicts the orbit of the moon (hereinafter referred to as the lunar orbit 40) around the earth 30. As the earth 30 rotates around the sun counterclockwise, the moon rotates around the earth 30 counterclockwise. A wavy orbit centered on the sun, such that the moon orbit 40 moves back and forth between the inside and outside of the earth orbit 31 when the movement of the earth 30 and the moon is seen from a position far above the earth axis of the earth 30. It becomes. In the moon orbit 40, the position where the moon is farthest from the sun is the full moon 41, and the position where the moon is closest to the sun is the new moon 42. By drawing the lunar orbit 40 in the spatio-temporal diagram 1, it can be seen that the moon is moving around the sun while overtaking the earth and overtaking the earth.

Mars 50 is a planet that goes around the sun next to Earth 30. The Mars 50 also moves on an elliptical orbit (hereinafter referred to as the Mars orbit 51) having the central point O as one focal point. Also for Mars 50, a ring-shaped region surrounded by a circle having a radius closest to the sun in the Mars orbit 51 and a circle having a radius farthest from the sun is depicted as an orbital region 52 of Mars 50. . By drawing the orbital region 52 in the spatio-temporal diagram 1, it is possible to easily recognize the fluctuation width of the orbit of Mars 50. As shown in FIGS. 1 to 3, the orbital region 52 of Mars 50 is wider than the orbital region 12 of Mercury 10. In the spatiotemporal diagram 1, the position of the perihelion 53 and the position of the perihelion 54 of the Mars 50 are also drawn. The perihelion point 53 is at a position of about 335 degrees on the Mars orbit 51, and the far day point 54 is at a position of about 155 degrees on the Mars orbit 51.

Jupiter 60 is a planet that goes around the sun next to Mars 50. Jupiter 60 also moves on an elliptical orbit (hereinafter referred to as Jupiter orbit 61) having the central point O as one focal point. However, in the example illustrated in FIG. 1, a circular orbit closer to the sun than the actual orbit of Jupiter 60 is drawn as the Jupiter orbit 61. In the spatiotemporal diagram 1, the position of the perihelion 62 and the position of the far day 63 of Jupiter 60 are also drawn. The perihelion point 62 is located at about 15 degrees on the Jupiter orbit 61, and the far day point 63 is located at about 195 degrees on the Jupiter orbit 61.

Saturn 70 is a planet that goes around the sun next to Jupiter 60. Saturn 70 also moves on an elliptical orbit (hereinafter referred to as Saturn orbit 71) having the central point O as one focal point. However, in the example shown in FIG. 1, a circular orbit closer to the sun than the actual orbit of Saturn 70 is drawn as the Saturn orbit 71. In the spatiotemporal diagram 1, the position of the perihelion 72 and the position of the distant sun 73 of Saturn 70 are also drawn. The perihelion point 72 is at a position of about 95 degrees on the Saturn orbit 71, and the far day point 73 is at a position of about 275 degrees on the Saturn orbit 71.

Uranus 80 is a planet that orbits the sun next to Saturn 70. Uranus 80 also moves on an elliptical orbit (hereinafter referred to as Uranus orbit 81) having the central point O as one focal point. However, in the example shown in FIG. 1, a circular orbit closer to the sun than the actual orbit of Uranus 80 is drawn as the Uranus orbit 81. In the spatiotemporal diagram 1, the position of the perihelion 82 and the position of the distant sun 83 of Uranus 80 are also drawn. The perihelion point 82 is at a position of about 170 degrees on the Uranus orbit 81, and the far day point 83 is at a position of about 350 degrees on the Uranus orbit 81.

Neptune 90 is a planet that goes around the sun after Uranus 80. Neptune 90 also moves on an elliptical orbit (hereinafter referred to as Neptune orbit 91) having the central point O as one focal point. However, in the example shown in FIG. 1, a circular orbit closer to the sun than the actual orbit of Neptune 90 is drawn as the Neptune orbit 91. In the spatio-temporal diagram 1, the position of the perihelion 92 and the position of the distant point 93 of Neptune 90 are also drawn. The perihelion point 92 is at a position of about 45 degrees on the Neptune orbit 91, and the far day point 93 is at a position of about 225 degrees on the Neptune orbit 91.

Pluto 100 is a quasi-planet that travels the farthest of the sun. Pluto 100 also moves on an elliptical orbit (hereinafter referred to as Pluto's orbit 101) having the central point O as one focal point. However, in the example shown in FIG. 1, a circular orbit closer to the sun than the actual orbit of Pluto 100 is drawn as the Pluto orbit 101. In the spatiotemporal diagram 1, the position of the perihelion 102 and the position of the perihelion 103 of Pluto 100 are also drawn. The perihelion point 102 is at a position of about 220 degrees on the Pluto orbit 101, and the far day point 103 is at a position of about 40 degrees on the Pluto orbit 101.

In the spatiotemporal diagram 1, the Mercury orbit 11, Venus orbit 21, Earth orbit 31, lunar orbit 40, and Mars orbit 51 represent the actual distance from the sun to their celestial bodies or a distance close to that distance at a predetermined scale. ing. For example, the orbits of the above celestial bodies represent the actual distance from the sun to those celestial bodies in the solar system or a distance close to that distance on a scale of 1 trillion. In this case, the diameter of the earth orbit 31 is 30 cm. On the other hand, in the spatiotemporal diagram 1, the Jupiter orbit 61, Saturn orbit 71, Uranus orbit 81, Neptune orbit 91, and Pluto orbit 101 are expressed in a predetermined scale (for example, 1 / trillion) as described above. It represents an orbit that is closer to the sun than the actual orbit of the celestial body. However, the Jupiter orbit 61, Saturn orbit 71, Uranus orbit 81, Neptune orbit 91, and Pluto orbit 101 are also expressed in the same scale as the Mercury orbit 11, Venus orbit 21, Earth orbit 31, moon orbit 40, and Mars orbit 51. May be.

In space-time map 1, the position of each celestial body in the solar system is shown in a circle. If the size of the circle of each celestial body is expressed by a predetermined scale (for example, 1 / trillion), each celestial body is too small to be seen. Accordingly, the circle of each celestial body is represented by a scale obtained by multiplying a predetermined scale (for example, 1 / trillion) by a predetermined time (for example, 100 times). In FIGS. 1 to 3, each celestial body is represented by a circle of a different size in order to make it easy to recognize the position of each celestial body. That is, the circle of each celestial body in FIGS. 1 and 2 is shown larger than the circle of each celestial body in FIG. The size of the circle of each celestial body in FIG. 3 is the size of the actual circle of each celestial body in FIG. 1 or the size of the circle of each actual celestial body.

As shown in FIG. 2 and FIG. 3, the spatiotemporal diagram 1 shows an angle of 15 degrees counterclockwise from the reference direction (−X axis direction) (0 degrees, 15 degrees, 30 degrees, 45 degrees,...・ 360 degrees) is drawn. As shown in FIG. 3, in the spatiotemporal diagram 1, an angle (about 1 degree) corresponding to the distance that the earth 30 moves on the earth orbit 31 in one day is divided by a plurality of lines 200. A circle indicating the position of the earth 30 is represented in each area (each area corresponding to one day of the earth 30) divided by a plurality of lines 200 in the orbital area 32 of the earth 30. Thereby, the position of the earth 30 every day is known. In addition, in each region divided by a plurality of lines 200 in the region between the orbital region 32 of the earth 30 and the orbital region 52 of Mars 50, a date as calendar information is associated with the position of the earth 30. 201 (year / month / day) and day of week 202 are shown.

As the date 201 and the day of the week 202, a date and day of a certain year (365 days or 366 days) are allocated. In the example shown in FIG. 3, March 21, 2014 to March 20, 2015 (365 days) are allocated. The date 201 is assigned such that the 0 degree position is the day of autumn, the 90 degree position is the day of the winter solstice, the 180 degree position is the day of the spring equinox, and the 270 degree position is the day of the summer solstice. In the example shown in FIG. 3, the autumn day is September 23, the winter solstice day is December 22, the spring equinox day is March 21, and the summer solstice day is June 21.

As shown in FIG. 3, in the spatiotemporal diagram 1, a circle indicating the position of the Mercury 10 is represented at a position corresponding to the movement distance of the Mercury 10 every certain time (for example, several days). Thereby, the position of Mercury 10 every predetermined time is known. Although not shown in FIG. 3, in the spatio-temporal diagram 1, date information every predetermined time (for example, several days) is described in association with the position of Mercury 10. As shown in FIG. 3, in the spatiotemporal diagram 1, a circle indicating the position of Venus 20 is represented at a position corresponding to the movement distance of Venus 20 every certain time (for example, several days). Thereby, the position of Venus 20 for every predetermined time is known. As shown in FIG. 3, the space-time diagram 1 shows date information 203 for each predetermined time (for example, several days) in association with the position of Venus 20.

As shown in FIG. 3, in the spatio-temporal diagram 1, a circle indicating the position of the Mars 50 is shown at a position corresponding to the moving distance of the Mars 50 every certain time (for example, several days). Thereby, the position of Mars 50 for every predetermined time is known. Although not shown in FIG. 3, in the spatiotemporal diagram 1, date information for each predetermined time (for example, month) is described in association with the position of the Mars 50. As shown in FIGS. 1 and 2, the spatiotemporal map 1 is located at a position corresponding to the movement distance of Jupiter 60, Saturn 70, Uranus 80, Neptune 90, and Pluto 100 for a certain time (for example, year). Circles indicating the positions of these objects are shown. As a result, the positions of those celestial bodies at every predetermined time can be known. Although not shown in FIGS. 1 to 3, the spatio-temporal map 1 corresponds to the positions of Jupiter 60, Saturn 70, Uranus 80, Neptune 90, and Pluto 100 for each predetermined time (for example, year). Date information is displayed.

As described above, in the spatio-temporal diagram 1, the orbits of a plurality of celestial bodies in the solar system, the positions on the orbits of the plurality of celestial bodies, and the time information corresponding to these positions are arranged. You can know the relationship between the position of the celestial body and time. This will deepen your understanding of the calendar and astronomy.

That is, the “year” is determined by the revolution period of the earth 30 that moves around the sun, the “month” is determined by the revolution period of the moon that moves around the earth 30, and the “day” is determined by the rotation period of the earth 30. ing. Thus, since the calendar is determined by the earth 30 and the movement of the moon around the sun, it is possible to immediately understand the formation of the calendar just by looking at the spatiotemporal diagram 1. Also, the speed of the Earth 30 (the distance traveled per day) around the sun is not constant, and the first half and the second half of the year are not the same number of days (for example, from March 21, 2014 to March 20, 2015) In the case of, the first half is 186 days and the second half is 179 days, and there is a shift of 7 days.) The quarter of one year is not the same number of days (the first quarter is 92 days, the second quarter is 94th, 90th in the third quarter, 89th in the fourth quarter). You can also intuitively understand the changing seasons.

In addition, not only the relationship between the position of the earth 30 that moves around the sun and time, but also the relationship between the position of celestial bodies other than the earth 30 in the solar system and time can be known. Therefore, it can be used not only as a calendar for knowing dates, but also for deepening academic understanding of astronomy. For example, knowing how much each celestial body moves in a predetermined time (for example, day, month, year), and where the positions of a plurality of celestial bodies in the solar system at a certain time (for example, date) are known. it can. In addition, the arrangement of each celestial body in the solar system will never be the same shape, what trajectory each celestial body will move in, and how many years each celestial body makes one round of the sun, etc. Can be recognized.

In addition, since the time information corresponding to the position of the earth 30 among the plurality of celestial bodies includes at least calendar information, the space-time diagram 1 can be used as a calendar. Here, if the Western calendar is associated with the position of the earth 30 as calendar information, it can be used as a calendar (calendar) written in the Western calendar generally used in Japan. However, in the spatio-temporal diagram 1, various calendar information used in each country or region of the world can be associated with the position of the earth 30. Therefore, it can be used as a calendar for various countries and regions in one format. It can also be understood that the equinox, autumn, winter solstice and summer solstice are common throughout the world.

Further, a predetermined celestial body (for example, Mercury 10, Venus 20, Earth 30, Moon, Mars 50) among a plurality of celestial bodies has an actual distance from the sun to the predetermined celestial body or a distance close to the predetermined distance to a predetermined scale. Therefore, the distance between the celestial bodies can be visually recognized.

In addition, the spatiotemporal diagram 1 shows a ring-shaped region (orbital regions 12, 22) surrounded by a circle whose radius is the distance closest to the sun and a circle whose radius is the furthest distance to the sun on the orbit of each celestial body. , 32, 52), the fluctuation width of the orbit of each celestial body can be easily recognized. That is, it can be recognized that there is a difference in distance between the sun and each celestial body by the blur width. In addition, the perihelion and far-perihel of each celestial body can be easily recognized. It can also be recognized that the speed of the celestial body at the perihelion point and a position near the point is faster than the speed of the celestial body at the far day point and the position near the point.

In addition, the spatio-temporal map 1 shows the positions of the moons that move around the earth 30, so what orbits the moon moves in, and when the full moon 41 and the new moon 42 appear. , Etc. can also be understood. Further, for example, it can be easily recognized that December 22, 2014 is a Fudan solstice where the winter solstice and the new moon 42 overlap. Also, it is easy to recognize that the time of the full moon 41 and the new moon 42 will shift slightly from year to year and will return to its original position in 1919 (the Fudan winter solstice is once in 1919). Can do.

Also, in the spatiotemporal diagram 1, each celestial body rotates the sun counterclockwise, so that the position of each celestial body in the solar system can be seen from the viewpoint of the universe far above the north pole of the Earth 30. Therefore, the position of each celestial body in the solar system can be seen like a watch. In addition, since the position of each celestial body is associated with the angle information from the reference position, the position of each celestial body can be easily recognized by the angle information (frequency from the reference position), and the angle information and By associating time information (calendar information), it can be easily used as a calendar of each country or region in the world.

Spatio-temporal map 1 is not limited to calendar applications, but can be used for fortune-telling based on the arrangement of celestial bodies. Moreover, if the relationship between the position of each celestial body and the biorhythm of life forms (including people) is known, it can be used to determine the behavior pattern of life forms.

Second Embodiment
FIG. 4 is a diagram showing a spatiotemporal diagram 3 of the second embodiment. The spatio-temporal diagram 3 shown in FIG. 4 is a diagram illustrating the relationship between the position of the solar system celestial bodies and time on a plane, similar to the spatio-temporal diagram 1 shown in FIGS. In FIG. 4, a circle indicating the position of the earth is not drawn, but actually a circle indicating the position of the earth every day is drawn. In FIG. 4, only the earth and the moon (and their orbits) are drawn, but celestial bodies (and their orbits) of the solar system other than the earth and the moon may be drawn.

In FIG. 4, the center point O corresponds to the position of the sun (center position of the sun). In the spatiotemporal diagram 1, a plurality of

concentric regions

300, 312, 330, and 340 centering on the center point O are provided. In the innermost inner area 300, the seasons of spring, summer, autumn, and winter are written in association with the position of the earth. Similarly to the spatiotemporal diagram 1 shown in FIG. 1 and the like, in the spatiotemporal diagram 3, an earth orbit 311 drawn when the earth moves is drawn in the orbital region 312. The spatio-temporal view 3 also shows a wavy lunar orbit 320 drawn when the moon moves. In the lunar orbit 320, a full moon 321 where the moon is farthest from the sun and a new moon 322 where the moon is closest to the sun are also depicted in the spatiotemporal diagram 3.

As shown in FIG. 4, in the first outer region 330, the name of the month (new moon, first string, full moon, last string) is written as time information in association with the position of the month. Further, as shown in FIG. 4, in the second outer region 340, calendar information (date) as time information is written in association with the position of the earth.

According to the time-space diagram 3 shown in FIG. 4, the relationship between the position of the moon and the time can be easily recognized, and the understanding of the name of the moon can be deepened. In addition, you may write in the spatio-temporal figure 3 about the name of the moon, such as a crescent moon. Also, in the spatiotemporal diagram 3, the age of the moon may be written together with the name of the moon or instead of the name of the moon.

It should be noted that the spatiotemporal diagrams 1 and 3 shown in FIGS. 1 to 4 are examples, and are not limited to the configurations shown in these drawings. For example, Mercury 10, Venus 20, Earth 30, Moon, Mars 50, Jupiter 60, Saturn 70, Uranus 80, Neptune 90, and Pluto 100 are shown as celestial bodies in the solar system. It may also represent quasi-planets such as Ellis and Ceres, satellites of planets such as Phobos and Deimos, and small solar system bodies such as comets. An artificial satellite may also be represented. In the

spatiotemporal maps

1 and 3, information such as the position of the star outside the solar system and the position (direction) of the constellation may be represented. Information such as these constellations may be arranged in a region corresponding to the position (direction) from the sun in the

spatiotemporal maps

1 and 3, or may be arranged in a space outside the orbits of a plurality of celestial bodies in the solar system. . In this case, in the

spatiotemporal maps

1 and 3, the constellation attached to the region in the direction from the sun toward the earth 30 is observed at night. On the other hand, the constellation attached to the region in the direction from the earth 30 toward the sun is observed in the daytime. Further, in the space-

time maps

1 and 3, when the constellation information is attached in this way, a constellation close to the path of the sun (the ecliptic) on the celestial sphere may be selectively attached.

In addition, the spatio-

temporal maps

1 and 3 may be attached with names of lunar months such as Satsuki, Kisaragi, Yayoi, and Satsuki as time information. In the spatio-temporal diagrams 1 and 3, six days such as first win, friendship, first move, Buddha, Daan, and red lip may be added as time information. In the spatiotemporal diagrams 1 and 3, information such as the number of days in the first half or the second half of a year, the number of days in a quarter, etc. may be written as time information. Also, in the spatio-temporal diagrams 1 and 3, information on various passages such as twenty-four passages and five passages may be written as time information.

Also, in the spatio-

temporal maps

1 and 3, by placing a mark (for example, a pin) at the current position of each celestial body, the position of each celestial body can be easily recognized. Further, the medium on which the spatiotemporal diagrams 1 and 3 are represented may be not only paper but also various media such as plastic and metal. In addition, the spatiotemporal diagrams 1 and 3 may be represented on a wall surface of a building. The spatiotemporal diagrams 1 and 3 may be drawn on the ground or may be made as a building.

<Third Embodiment>
In the first embodiment and the second embodiment, the spatiotemporal diagrams 1 and 3 are displayed on a medium such as paper. In the third embodiment, the spatiotemporal diagrams 1 and 3 are displayed on the display device. Is displayed.

FIG. 5 is a block diagram illustrating a configuration of the information processing apparatus 501 according to the third embodiment. An information terminal 501 as an information processing apparatus according to the third embodiment is, for example, a computer that processes information. As shown in FIG. 5, the information terminal 501 includes a display device 502 such as a liquid crystal display that displays an image on a display screen 502A, a keyboard 503 serving as input means for inputting information based on a user operation, and A mouse 504 is connected.

The information terminal 501 includes an arithmetic processing unit 510 and a storage unit 520. The arithmetic processing unit 510 is a processing unit that performs various arithmetic processes. The arithmetic processing unit 510 includes a display control unit (control unit) 511, an operation control unit 512, an image processing unit (control unit) 513, and a clock unit 514. The arithmetic processing unit 510 includes a processor such as a CPU (Central Processing Unit), and the processing or control executed by the processor based on the program 530 stored in the storage unit 520 is the display control unit 511, operation control. This corresponds to the unit 512, the image processing unit 513, and the clock unit 514.

The display control unit 511 performs control to display an image on the display screen 502A of the display device 502. The operation control unit 512 performs control to input information according to the operation of the keyboard 503 and the mouse 504 by the user. The image processing unit 513 performs image processing in accordance with the operation of the keyboard 503 and the mouse 504 by the user or automatically. The clock unit 514 acquires current time information by measuring the current time such as date, hour, minute, and second by itself, or acquires current time information from an external device (device that measures standard time). The clock unit 514 recognizes the current time based on the acquired current time information.

The storage unit 520 stores various types of information. The information stored in the storage unit 520 includes a program 530 that causes the arithmetic processing unit 510 to execute processing. Further, the information stored in the storage unit 520 includes the image data of the spatiotemporal diagram 1 shown in FIGS. 1 to 3 and the image data of the spatiotemporal diagram 3 shown in FIG. 4. The

spatiotemporal maps

1 and 3 are composed of a plurality of image data such as celestial images, orbit images, orbital region images, perihelion and far-day images, and time information (text information) such as a calendar. . The information stored in the storage unit 520 includes information on the position of each celestial body in the solar system from the past to the future (for example, information on the position of each celestial object for each day). The information stored in the storage unit 520 includes image data such as various buttons displayed on the display screen 502A of the display device 502.

FIG. 6 is a diagram illustrating a display example of an image displayed on the display device 502. In the example shown in FIG. 6, the image of the spatiotemporal diagram 1 shown in FIGS. 1 to 3 is displayed on the display screen 502 </ b> A of the display device 502. A time display area 601 for displaying the current time (year / month / day) is provided at the lower right of the display screen 502A of the display device 502. A display screen 502A of the display device 502 displays a cursor 602 that moves according to the operation of the user's mouse 504.

Also, a selection button for selecting a celestial body to be displayed (and / or a trajectory of the celestial body) is displayed on the upper right of the display screen 502A of the display device 502. As selection buttons, a first selection button 611 (selected as “All” in FIG. 6) for selecting all celestial bodies and a second selection button 612 (selected as “Mercury” in FIG. 6) for selecting Mercury 10 are selected. Button), a third selection button 613 for selecting Venus 20 (a button labeled “Mercury” in FIG. 6), and a fourth selection button 614 for selecting Mars 50 (a button labeled “Mars” in FIG. 6). A fifth selection button 615 for selecting Jupiter 60 (a button labeled “Jupiter” in FIG. 6), a sixth selection button 616 for selecting Saturn 70 (a button labeled “Saturn” in FIG. 6), A seventh selection button 617 for selecting Uranus 80 (a button labeled “Uranus” in FIG. 6), an eighth selection button 618 for selecting Neptune 90 (a button labeled “Neptune” in FIG. 6), and Pluto 100 Select 9th With-option button 619 (button that was expressed in FIG. 6 as "Pluto"), is provided. As the selection button, a button for selecting the earth 30 or a button for selecting the moon may be provided. By selecting one or more of these selection buttons, the selected celestial body (and / or orbit) is displayed.

FIG. 7 is a flowchart showing a flow of processing executed by the information processing apparatus of the third embodiment. For example, when the information terminal 501 is activated or the program 530 is activated, the processing illustrated in FIG. 7 is started. In the process shown in FIG. 7, the clock unit 514 first acquires the current time information by measuring the current time by itself, or acquires the current time information from the external device (step S1). The clock unit 514 recognizes the current time based on the acquired current time information. Next, the display control unit 511 reads out the image of the spatiotemporal diagram 1 stored in the storage unit 520 and displays it on the display screen 502A of the display device 502 (step S2). At this time, the image processing unit 513 generates an image of a celestial body arranged at a position corresponding to the current time recognized by the clock unit 514. The display control unit 511 displays the image of the spatiotemporal diagram 1 generated by the image processing unit 513. In addition, the display control unit 511 displays the current time recognized by the clock unit 514 in the time display area 601 and reads out the images of the selection buttons 611 to 619 stored in the storage unit 520 and displays them on the display screen 502A. indicate. Further, the display control unit 511 reads the image of the cursor 602 stored in the storage unit 520 and displays it on the display screen 502A.

The operation control unit 512 always checks whether information corresponding to a user operation is input from the keyboard 503 or the mouse 504. The operation control unit 512 inputs, for example, information on clicking an image with the mouse 504 (position information indicating a clicked position) as enlarged display instruction information. When the operation control unit 512 receives information about an instruction for enlargement display, the operation control unit 512 outputs the information to the image processing unit 513. The image processing unit 513 determines whether or not there has been an instruction for enlargement display by the user based on whether or not enlargement display instruction information has been output from the operation control unit 512 (step S3). If the image processing unit 513 determines that there is an instruction for enlargement display, the image processing unit 513 specifies an image (clicked image) selected by the user based on information on the instruction for enlargement display, and an image obtained by enlarging the specified image is displayed. Generate. The display control unit 511 enlarges and displays the image generated by the image processing unit 513 on the display screen 502A (step S4).

The operation control unit 512 inputs, for example, information on the click of the selection button by the mouse 504 (position information indicating the clicked position) as selection display instruction information. When the operation control unit 512 receives information on a selection display instruction, the operation control unit 512 outputs the information to the image processing unit 513. The image processing unit 513 determines whether there is a selection display instruction by the user based on whether the selection display instruction information is output from the operation control unit 512 (step S5). If the image processing unit 513 determines that there has been an instruction for selection display, the image processing unit 513 specifies a selection button (clicked selection button) selected by the user based on information on the instruction for selection display, and responds to the specified selection button. Generate only the image of the celestial object. The display control unit 511 displays the image generated by the image processing unit 513 on the display screen 502A (step S6).

The operation control unit 512 inputs time information (for example, date) based on, for example, an operation of the keyboard 503 by the user. When the time information is input, the operation control unit 512 outputs the time information to the image processing unit 513. The image processing unit 513 determines whether there is a time instruction from the user based on whether the time information is output from the operation control unit 512 (step S7). If the image processing unit 513 determines that there is an instruction for time, the image processing unit 513 specifies the time specified by the user based on the time information. Then, the image processing unit 513 specifies the position of the celestial object corresponding to the time specified by the user based on the information on the position of each celestial object in the solar system from the past to the future stored in the storage unit 520. The image processing unit 513 generates an image of the celestial body arranged at the specified position. The display control unit 511 displays the image generated by the image processing unit 513 on the display screen 502A (step S8). For example, the user inputs his / her date of birth into the information terminal 501 as time information. The image processing unit 513 identifies the position of the celestial object corresponding to the date of birth designated by the user, and generates an image of the celestial object arranged at the identified position. Then, the display control unit 511 displays the image generated by the image processing unit 513 on the display screen 502A.

In FIG. 6, the case where the image of the spatiotemporal diagram 1 of the first embodiment is displayed on the display device 502 has been described. However, the image of the spatiotemporal diagram 3 of the second embodiment is displayed on the display device 502. This is realized with the same configuration.

As described above, in the third embodiment, the information processing apparatus 501 displays the images of the spatiotemporal diagrams 1 and 3 on the display device, so that the user can display the

spatiotemporal maps

1 and 3 displayed on a medium other than paper or the like. Can be recognized. In the third embodiment, a clock unit 514 for specifying the current time, and images of all or some of the celestial bodies among the plurality of celestial bodies are displayed at positions corresponding to the current time specified by the clock unit 514. And

display control units

511 and 513. According to such a configuration, the position of the celestial body corresponding to the current time can be displayed.

In the third embodiment, the

control units

511 and 513 display an image of the celestial object selected by the user. According to such a configuration, the current position of the celestial object can be displayed only for the celestial object that the user wants to see. Therefore, displaying all the celestial images can prevent the display of the images from becoming complicated. This is particularly effective when the display screen 502A of the display device 502 is small. In the third embodiment, the

control units

511 and 513 display an enlarged image of the region in the spatiotemporal diagrams 1 and 3 selected by the user. According to such a configuration, it is possible to allow the user to recognize details such as celestial images and orbit images. Also in this case, a great effect is exhibited when the display screen 502A of the display device 502 is small.

In the third embodiment, the

control units

511 and 513 may highlight the images of the celestial bodies arranged at positions corresponding to the current time or the time specified by the user. The highlight display is a display that illuminates the celestial image, blinks the celestial image, or changes the color of the celestial image. Alternatively, the

control units

511 and 513 may display lines connecting the images of the celestial bodies arranged at positions corresponding to the current time or the time specified by the user. Further, the

control units

511 and 513 may be configured to display lines connecting the images of the celestial bodies arranged at the positions corresponding to the current time or the time specified by the user and the center point O, respectively.

<Fourth embodiment>
The third embodiment is a stand-alone system. However, the present invention is not limited to such a system. In the fourth embodiment, an information processing system SYS connected through a communication network such as a client server system will be described. In the following description, components that are the same as or equivalent to those in the third embodiment are given the same reference numerals, and descriptions thereof are omitted or simplified.

FIG. 8 is a block diagram showing the configuration of the information processing system SYS of the fourth embodiment. As illustrated in FIG. 8, the information processing system SYS includes a client terminal 501 </ b> A and a server (information processing apparatus) 700. The arithmetic processing unit 510A of the client terminal 501A includes a display control unit 511, an operation control unit 512, and a communication unit 515. Among these processing units, the display control unit 511 and the operation control unit 512 correspond to the display control unit 511 and the operation control unit 512 illustrated in FIG. 5. Further, the storage unit 520 illustrated in FIG. 8 corresponds to the storage unit 520 illustrated in FIG. However, the storage unit 520 illustrated in FIG. 8 does not include the program 530 unlike the storage unit 520 illustrated in FIG. Further, the storage unit 520 shown in FIG. 8 does not store the image data of the spatiotemporal diagrams 1 and 3.

The communication unit 515 of the arithmetic processing unit 510A illustrated in FIG. 8 transmits and receives data to and from the server 700 via the communication network 800. The server 700 includes an arithmetic processing unit 710 and a storage unit 720. The arithmetic processing unit 710 includes a communication unit 711, an image processing unit (control unit) 712, and a clock unit 713. The communication unit 711 transmits / receives data to / from the client terminal 501A via the communication network 800. The image processing unit 712 executes image processing in accordance with the operation of the keyboard 503 and the mouse 504 by the user or automatically. The image processing unit 712 is a processing unit corresponding to the image processing unit 513 illustrated in FIG. The clock unit 713 acquires current time information by measuring the current time by itself, or acquires current time information from an external device (device that measures standard time). The clock unit 713 recognizes the current time based on the acquired current time information. The clock unit 713 is a processing unit corresponding to the clock unit 514 shown in FIG.

The arithmetic processing unit 710 includes a processor such as a CPU (Central Processing Unit), and the processing or control executed by the processor based on the program 730 stored in the storage unit 720 is the communication unit 711 and the image processing unit. 712 and the clock unit 713.

The storage unit 720 stores various information. The information stored in the storage unit 720 includes a program 730 that causes the arithmetic processing unit 710 to execute processing, the image data of the spatiotemporal diagram 1 shown in FIGS. 1 to 3 and the image of the spatiotemporal diagram 3 shown in FIG. Contains data. The information stored in the storage unit 720 includes information on the position of each celestial body in the solar system from the past to the future. The information stored in the storage unit 720 also includes image data such as various buttons displayed on the display screen 502A of the display device 502.

When the user operates the keyboard 503 or the mouse 504 to specify enlarged display instruction information, selection display instruction information, or time information (for example, date), the operation control unit 512 inputs the information. . Then, the communication unit 515 transmits the information to the server 700 via the communication network 800. In the server 700, the communication unit 711 receives information from the client terminal 501A. The clock unit 713 acquires current time information indicating the current time and recognizes the current time. The image processing unit 712 generates an image according to an instruction from the user based on the information received by the communication unit 711. The communication unit 711 transmits the image data generated by the image processing unit 712 to the client terminal 501A via the communication network 800. In the client terminal 501A, the display control unit 511 outputs the image data transmitted from the server 700 to the display device 502 for display.

According to such a configuration, it is not necessary for the client terminal 501A to store a large amount of data, so that data management can be unified and costs can be reduced.

As mentioned above, although embodiment of this invention was described, the technical scope of this invention is not limited to the range as described in said embodiment. Various modifications or improvements can be added to the above embodiment without departing from the spirit of the present invention. In addition, one or more of the requirements described in the above embodiments may be omitted. Such modifications, improvements, and omitted forms are also included in the technical scope of the present invention. In addition, the configurations of the above-described embodiments and modifications can be applied in appropriate combinations.

For example, when notifying calendar information as time information in the spatio-temporal chart 1 or the like, from which angle to start calendar information for one year, from which date to start calendar information for one year, etc. The above can also be changed as appropriate. In addition, in the spatio-temporal diagram 1 or the like, it is possible to appropriately change which direction is used as the reference for the angle information. The information terminal 501 in the third embodiment and the client terminal 501A in the fourth embodiment are computers, but may be a mobile phone, a smartphone, a tablet terminal, or the like. In the third and fourth embodiments described above, images on a plane (that is, two-dimensional images) are displayed as the spatiotemporal diagrams 1 and 3 displayed on the display screen 502A of the display device 502. A three-dimensional image may be displayed. In addition, the information terminal 501 and the client terminal 501A may display the spatiotemporal diagrams 1 and 3 in a three-dimensional manner using a hologram.

In addition, when the time information corresponding to the position of the earth is described in the spatio-temporal map 1 etc., the seasonal information in a predetermined region or place (for example, Honshu, Shonai region, Yamagata Prefecture) is associated with the time information. Information on seasonal ingredients such as vegetables, fruits and seafood (eg turnips, mizuna, strawberries, squid, scallops), and information on typical menus of dishes using seasonal ingredients (eg, squid and mizuna spaghetti) ) May be attached. In this case, seasonal food information and menu information may be classified and attached. In addition, information on seasonal foods may be classified for each type such as vegetables, fruits, and seafood. In addition, as the predetermined region or place, a single region or place may be selected, but a plurality of regions or places may be selected. When multiple regions or places are selected, in the spatio-temporal map 1 etc., information on seasonal ingredients and information on typical menus of dishes using seasonal ingredients are shown separately for each area and place. May be.

In addition, when time information corresponding to the position of the earth is described in the spatio-temporal map 1 or the like, information on the year and time corresponding to the time information may be attached together with the time information.

<Detailed data on the solar system>
FIG. 9 is a table showing data representing the relationship between the sun and the planets in the solar system. In FIG. 9, the orbital length radius a is the radius in the major axis direction of the elliptical orbit of each planet (Mercury, Venus, Earth, Mars, Jupiter, Saturn, Uranus, Neptune). The straight line including the orbital radius a passes through the center of the elliptical orbit and two focal points. In FIG. 9, the orbital radius a is represented in astronomical units. The astronomical unit is a unit used in astronomy, and is a unit in which the distance between the earth and the sun is 1. The eccentricity e is the eccentricity of the elliptical orbit of each planet. The distance from the center of the elliptical orbit to the focal point (eccentric distance) is represented by ae (that is, the orbital length radius × the eccentricity). The eccentricity of the Earth fluctuates between about 0 and about 0.05 due to the interaction of gravity between planets.

The orbital inclination (orbital inclination angle) i refers to the angle between the orbital plane and the reference plane of a celestial body (planet of the solar system) that orbits around a certain celestial body (the sun in FIG. 9). The perihelion meridian ω is an angle indicating the direction of the perihelion. The ascending intersection is a point on the orbit where the celestial body passes through the reference plane from the lower side to the upper side among the intersection points of the orbit of the celestial body and the reference plane. The ascending intersection yellow longitude Ω is an angle measured from the equinox to the ascending intersection along the orbital plane in the direction of the earth's revolution. The direction of the orbit is determined by the three angles of perihelion longitude, ascending intersection longitude and orbit inclination angle i.

The minimum distance from the sun to each planet corresponds to the distance between the sun and each planet at the perihelion point (perihelion distance). Further, the maximum distance from the sun to each planet corresponds to the distance between the sun and each planet at the far day point (far day point distance). Further, an intermediate distance between the perihelion distance and the far day point distance corresponds to the orbital length radius a. The unit of these distances is 10 8 km. The unit of the radius of the working area (also referred to as the influence area) is 10 6 km. The stellar average motion μ is indicated by the average solar day, and the stellar revolution period P is indicated by the average solar year. The orbital average speed is the average speed when each planet moves in orbit. The unit of this speed is km / s. The association period is a period when a certain celestial body is observed from the earth and comes to the same position with respect to the sun on the celestial sphere, that is, the angle of separation from the sun becomes the same value. This is the time interval when the celestial body comes to the position of the sun. The table shown in FIG. 9 is based on the NAOJ scientific chronology table (2014 edition).

In each embodiment described above, if the position and movement of each celestial body in the solar system are created based on the data shown in FIG. 9, the position and movement of each celestial body in the solar system can be further reproduced.

DESCRIPTION OF

SYMBOLS

1,3 ... Spatio-temporal map, 10 ... Mercury (celestial body), 11 ... Mercury orbit (orbit), 12 ... Orbit area, 20 ... Venus (celestial body), 21 ... Venus orbit (orbit), 22 ... Orbit area, 30 ... Earth (celestial body), 31 ... Earth orbit (orbit), 32 ... Orbital region, 40 ... Moon orbit (orbital), 50 ... Mars (celestial body), 51 ... Mars orbit (orbital), 52 ... Orbital region, 60 ... Jupiter ( Celestial), 61 ... Jupiter orbit, 70 ... Saturn (celestial), 71 ... Saturn orbit, 80 ... Uranus (celestial), 81 ... Uranus orbit, 90 ... Neptune (celestial), 91 ... Neptune orbit (orbit), 100 ... Pluto (celestial body), 101 ... Pluto orbit (orbit), 501 ... Information terminal (information processing device), 511 ... Display control unit (control unit), 513 ... Image processing unit (control unit) 514: Clock unit, 520: Storage unit, 700: Server (information processing unit) Device), 712 ... image processing unit (control unit), 713 ... clock unit, SYS ... information processing system

Claims

The orbits of several celestial bodies in the solar system,
Positions of the plurality of celestial bodies in orbit;
Time information corresponding to positions on the orbits of the plurality of celestial bodies and including at least calendar information,
The predetermined celestial body of the plurality of celestial bodies is arranged at a position that shows an actual distance from the sun to the predetermined celestial body or a distance close to the distance at a predetermined scale, and the predetermined celestial body is on the orbit of the predetermined celestial body. A ring-shaped region surrounded by a circle having a radius closest to the sun and a circle having a radius farthest from the sun;
The position of each celestial body from the sun is represented by information on an angle from a reference direction in a predetermined direction from the center of the sun.
The spatiotemporal map according to claim 1, wherein the orbit of the moon orbiting around the earth and the positions of the full moon and the new moon of the moon are arranged.
The orbits of the celestial bodies include the orbit of Mercury, the orbit of Venus, the orbit of Earth, the orbit of the moon, the orbit of Mars, the orbit of Jupiter, the orbit of Saturn, the orbit of Uranus, the orbit of Neptune, and the orbit of Pluto. The orbit of Mercury, the orbit of Venus, the orbit of the earth, the orbit of the moon, and the orbit of Mars are each from the sun in the solar system from the viewpoint of looking at the solar system from above the north pole of the earth. The actual distance to the celestial body or a distance close to that distance is shown at a scale of 1 / trillion, the orbit of Jupiter, the orbit of Saturn, the orbit of Uranus, the orbit of Neptune, and the The space-time map according to claim 1 or 2, wherein each of the orbits of Pluto is represented by an orbit that is shown at a different scale from the scale and is closer to the sun than the actual orbit.
An information processing apparatus that displays the image of the spatio-temporal view according to any one of claims 1 to 3 on a display device.
A clock that identifies the current time,
The information processing apparatus according to claim 4, further comprising: a control unit that displays an image of all or some of the plurality of celestial bodies at a position corresponding to the current time specified by the clock unit.
The information processing apparatus according to claim 5, wherein the control unit displays an image of a celestial body selected by a user.
The information processing apparatus according to claim 5 or 6, wherein the control unit enlarges and displays an image of an area in the space-time diagram selected by a user.
In the information processing device,
The program which performs the process which displays the image of the spatio-temporal map of any one of Claim 1 to 3 on a display apparatus.
In the information processing apparatus,
A time identification process for identifying the current time;
The program according to claim 8, wherein display processing for displaying images of all or part of the planets of the plurality of celestial bodies at a position corresponding to the current time specified by the time specifying processing is executed.
The program according to claim 9, wherein the display process displays an image of a celestial object selected by a user.
The program according to claim 9 or 10, wherein the display process enlarges and displays an image of an area in the space-time diagram selected by a user.