WO2005111743A1 - A recently planet astronomy clock - Google Patents

A recently planet astronomy clock Download PDF

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Publication number
WO2005111743A1
WO2005111743A1 PCT/CN2005/000621 CN2005000621W WO2005111743A1 WO 2005111743 A1 WO2005111743 A1 WO 2005111743A1 CN 2005000621 W CN2005000621 W CN 2005000621W WO 2005111743 A1 WO2005111743 A1 WO 2005111743A1
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WO
WIPO (PCT)
Prior art keywords
hour
earth
planetary
scale
dial
Prior art date
Application number
PCT/CN2005/000621
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French (fr)
Chinese (zh)
Inventor
Gangming Yan
Original Assignee
Gangming Yan
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Gangming Yan filed Critical Gangming Yan
Publication of WO2005111743A1 publication Critical patent/WO2005111743A1/en

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Classifications

    • GPHYSICS
    • G04HOROLOGY
    • G04BMECHANICALLY-DRIVEN CLOCKS OR WATCHES; MECHANICAL PARTS OF CLOCKS OR WATCHES IN GENERAL; TIME PIECES USING THE POSITION OF THE SUN, MOON OR STARS
    • G04B19/00Indicating the time by visual means
    • G04B19/26Clocks or watches with indicators for tides, for the phases of the moon, or the like
    • G04B19/262Clocks or watches with indicators for tides, for the phases of the moon, or the like with indicators for astrological informations
    • GPHYSICS
    • G04HOROLOGY
    • G04GELECTRONIC TIME-PIECES
    • G04G9/00Visual time or date indication means
    • G04G9/0082Visual time or date indication means by building-up characters using a combination of indicating elements and by selecting desired characters out of a number of characters or by selecting indicating elements the positions of which represents the time, i.e. combinations of G04G9/02 and G04G9/08

Definitions

  • the invention relates to a timing device, in particular to a perimeter planetary astronomical clock in which the planetary solar year, solar day runs and timing.
  • the purpose of the present invention is to overcome the deficiencies in the prior art described above and provide a miniature of the astronomical scene of the solar system on astronomical clocks. It is defined by the planned viewpoint on the solar system sky: 1 dagger poles top view of the planets in the system and rotate around the sun to define Of the solar year, solar day, and the three-dimensional space-time of each other.
  • the time of each planet ’s solar day is set in accordance with its natural law.
  • the plane of the dial is vividly reflected, and the difference between each other can be easily measured through the proportional value, so that people can easily observe and compare the position of the coordinate point of the planet and the geometric position of the planets in the near future in scientific research and daily life.
  • Corresponding planetary astronomical clock in the local time of the corresponding planetary body.
  • This kind of planetary astronomical clock in the past includes: a casing, a dial, a pointer, a moving movement, a chronometer mechanism, and a needle pulling device.
  • the special feature is that the clock is represented by a corresponding On each solar day, the hour axis of the planet rotates a circle corresponding to the time-lapse movement.
  • the sun axis in the chronology mechanism is sequentially set with Mercury hands, Venus hands, Earth hands, and Mars hands.
  • the direction of the effect of the sun-arc arctic top view rotates around the axis of the sun, and the planetary trajectories arranged on the dial surface outward from its axis are sequentially set by the rings of Mercury, the rings of Venus, the rings of Earth, and the rings of Mars;
  • the sun axis, the corresponding planetary hour hand, and the moon needle can be set as concentric structures or non-concentric structures; the respective engraved rings of non-concentric structures are arranged around their pointers.
  • the corresponding sun direction of the planetary sun on the hour hand ft axis corresponds to the planet's rotation direction.
  • the hour hand indicates the time zone point rotation track.
  • the horizontal axis of the hour scale circle corresponds to the morning and dusk line of the celestial body.
  • the upper semicircle scale is daytime and the lower semicircle scale is At night, a planet distinguishing character logo is set on the disk.
  • the non-concentric structure is that the Martian hour hand axis is located at the center of the dial, and its corresponding Martian hour scale and Martian minute and second scale are located outside the dial; the chronology mechanism is arranged above the dial; the Earth hour hand axis, the moon hand axis, and the corresponding The scale is set below the ⁇ dial; the earth chronograph minute hand, second hand, minute and second scale or number jump code device are set on both sides of the center of the dial.
  • the non-concentric structure described is the Earth's hour hand axis, and the 'Moon hand' axis is set at the center of the dial, and its corresponding hour scale, minute and second scale, and lunar phase lunar calendar are located outside the dial; the chronological mechanism is set above the dial; Mars hour hand The needle shaft and the corresponding Martian hour scale and Martian minute and second scale are set below the dial; the dial Digital code hopping devices are set on both sides of the center.
  • the digital code skipping device is provided with ten-hour earth time display, twenty-four hour display, calendar display, day of the week display and days of the earth year, ten-hour earth time display, year of the earth day of Mars, ten-hour mars Display settings.
  • the concentric structure is provided with an earth hour scale ring, a minute second scale ring, a Mars hour scale ring, and a Mars minute and second scale ring on the outer circumference of the planetary trajectory of the chronology mechanism; the moon phase lunar calendar is located outside the dial; all needle axes coincide with the center.
  • Each of the dials can be provided with two or more sun-day hour and hour axes, hands, and scales respectively corresponding to the planets, and can be tree-chirped by a digital code-hopping device.
  • the technical effects displayed by the dial and the hands can be displayed on the screen with a photoelectric display element.
  • the present invention has the following advantages:
  • the traditional timing method and device have been completely changed, and its structure is simple and rich in content, which vividly reflects the solar year, solar day operation rules defined by the planets in the solar system orbiting the sun, and the linkage of planetary mechanisms that conform to the operation rules.
  • the setting clearly, directly and vividly reflects the three-dimensional space-time of each planet in the solar system. Since the hands rotate in the "rotation direction" and add coaxial or non-uniform The other planetary needle members of the shaft make the real-time display and peer-to-peer direct comparison of the time of the Earth's time zones, so the dial has the effect of simulating time and space.
  • the recent planetary astronomical clock dial can be replaced with a screen display device consisting of a photoelectric display element or a progressive digital code hopping device. It is also possible to make the pointer and electronic display coexist on the same product on one dial.
  • FIG. 1 is a schematic diagram of a planetary track ring, a pointer and a needle shaft of the chronology mechanism of the present invention.
  • Fig. 2 is a schematic structural view of a first structure in which the sun axis of the chronology mechanism of the present invention is coaxial with the planetary hour hand axis.
  • FIG. 3 is a schematic structural view of a second structure in which the sun axis of the chronology mechanism of the present invention is coaxial with the planetary hour hand axis.
  • FIG. 4 is a schematic structural view of a first structure in which the sun axis of the chronology mechanism of the present invention is non-coaxial with the planetary hour hand axis.
  • FIG. 5 is a schematic structural diagram of a second structure in which the sun axis of the chronology mechanism of the present invention is non-coaxial with the planetary hour hand axis.
  • the present invention mainly relates to the dial structure of recent planetary astronomical clocks.
  • the mature technology of existing mechanical watches or quartz watches can be used to design the corresponding standard processing mechanism, adjustment control mechanism, delivery mechanism, needle movement mechanism and display mechanism.
  • the structure can be various, which is not the occupation of the present invention
  • Figures 1 and 2 show a first embodiment of the invention.
  • the astronomical watch includes: a case 1, a dial 2, a pointer, a movement movement (not shown), a chronology mechanism 3, a needle pull device (not shown), which is indicated by a corresponding planet in The hour axis of each solar day rotates in a circle corresponding to the clockwise movement of the chronograph mechanism 3.
  • the sun axis 30 in the chronology mechanism 3 is sequentially set with a Mercury pointer 311, Venus pointer 321, Earth pointer 331, Mars pointer 341, and planetary hands.
  • the above setting determines the reference position of the planet as the standard position of the other planets, which is to adjust the relative positions of the pointers of other planets.
  • the position of the coordinate points between the planets can be corrected by the needle setting device.
  • the relative angle between the pointers of the planets and the axis of the sun is observed. , You can easily determine the relative plane position between planets in the near future.
  • the sun axis 30 and the corresponding earth hour clock and moon needle axis are set as concentric structures, and the corresponding planetary sun hour clock axis rotation direction corresponds to the planet rotation direction.
  • the chronology mechanism 3 is provided with an earth hour scale ring 330 and a minute and second scale ring 620 on the outer circumference of the planetary trajectory; the moon phase lunar calendar 810 is located outside the dial 2 and all the needle axes coincide with the center, the hour 61 indicates the time zone point rotation track, and the hour scale circle
  • the horizontal diameter line 611 corresponds to the morning and dusk line of the celestial body.
  • the upper semicircle scale is day and the lower semicircle scale is night.
  • the geometric angle of 81 can be used to calculate the real-time moon phase and position of the time zone point.
  • Fig. 3 shows a second embodiment of the present invention.
  • the astronomical watch includes: a case 1, a dial 2, a pointer, a movement movement (not shown), a chronograph mechanism 3, a needle pull device ('not shown), which is represented by a corresponding planet
  • the sun axis 30 in the chronological mechanism linked to the chronological mechanism 3 that rotates a circle corresponding to each solar day is sequentially set with a Mercury pointer 311, Venus pointer 321, Earth pointer 331, Mars pointer 341, and each planet.
  • the pointer follows the viewpoint and rotates around the axis of the sun in the direction of the North Pole top view of the solar sky, and the planetary trajectories arranged on the dial 2 face outward from its axis are sequentially Mercury Engraved Ring 310, Venus Engraved Ring 320, Earth Engraved Ring 330, Mars Setting of the engraved ring 340; chronology mechanism 3
  • the central sun axis 30 and the corresponding planetary hour hand and moon needle shafts are set to be concentric; the chronology mechanism 3 is provided with an earth travel mechanism 6 and a Mars travel mechanism 7 on the outer circumference of the planetary trajectory.
  • Hour scale 610 and hour hand 61, and minute and second scale 620 and minute hand 62 In the earth travel mechanism, Hour scale 610 and hour hand 61, and minute and second scale 620 and minute hand 62.
  • Second hand 63 is located outside the planetary track ring.
  • the second hand 73 is provided outside the earth minute and second scales 620, and a planet distinguishing character mark 11 is provided on the disk surface.
  • the Moon Phase Lunar Calendar 810 and the Moon Hand 81 are located on the outside of the dial, and all the needle axes coincide with the center of the planet.
  • the corresponding rotation directions of the planetary sun and hour hand axis correspond to the rotation directions of Mercury, Earth, and Mars (the opposite direction of Venus). Time zone point rotation trajectory.
  • the horizontal axis 611 of the hour scale circle corresponds to the morning and dusk line of the celestial body.
  • the upper semicircle scale is day and the lower semicircle scale is night.
  • the moon hand 81 advances to a scale.
  • the above settings determine the reference coordinates of the planet as the standard for the plane positions of other planets, that is, the reference corresponding points for adjusting the relative positions of the pointers of other planets. It is an irrational number, so after a period of operation, the position of the coordinate points between the planets can be corrected by the needle setting device.
  • the relative angle between the planets in the near future can be easily measured by observing the relative angle between each planet's pointer and the axis of the sun.
  • Plane position All needle axes coincide with the center.
  • the direction of rotation of the hour hand of the earth sun corresponds to the rotation direction.
  • the point indicated by the hour hand 61 is the time zone rotation track.
  • the horizontal axis 611 'of the hour scale circle corresponds to the morning and dusk line of the celestial body.
  • the upper semicircle scale is daytime.
  • the lower semicircle scale is nighttime. In Figure 3, it is distinguished from the traditional 24-hour system, which is on the dial.
  • the ten-hour d character mark 10 is set on 2.
  • the unit of measurement of a solar day for the Earth travel mechanism 6 and the Mars travel mechanism 7 is the same, that is, 10 hours x 100 minutes x 100 seconds, which is different from the total of the time interval of the seconds of the travel mechanism. Ontology-sunday interval.
  • the time difference between the planets can be directly converted by the interval ratio value:
  • Fig. 4 shows a third embodiment of the present invention. '
  • the astronomical timepiece includes a case 1, a dial 2, a pointer, a time movement (not shown), a chronograph mechanism 3, and a needle pulling device (not shown), among which the sun axis in the chronometer mechanism 3
  • the heart 30 is a non-concentric timing device with the Earth hour hand axis 60, the moon hand axis 80, and the Mars hour hand axis 70.
  • the dial 2 can be provided with two or more sun day and hour hand shafts and hands corresponding to the planets, respectively.
  • the scale, and a planet distinguishing character mark 11 is set on the disk surface.
  • the corresponding planetary solar day The rotation direction of the hour hand axis corresponds to the rotation direction of the planet, the point indicated by the hour hand is the rotation track of the time zone point, the horizontal axis of the hour scale circle corresponds to the morning and dusk line of the celestial body, the upper semicircle scale is daytime and the lower semicircle scale is nighttime;
  • the concentric structure is that the Martian hour hand 70 is located at the center of dial 2, and its corresponding hour scale 710 and minute and second scale 720 are located outside dial 2.
  • the chronology mechanism 3 is set above dial 2.
  • the shaft 80 and the corresponding scale are set below the dial 2.
  • the two sides of the center of the dial 2 are respectively provided with the earth chronograph minute hand 62, the second hand 63, the minute and second scale 620 or the digital code skipping device 9.
  • the digital code skipping device 9 is provided with the settings of display of 91 at ten o'clock, 92 at 24 o'clock, display of calendar 93, and display of week 9 respectively.
  • the two time-traveling mechanisms are 'seconds' and the cycle interval is equal, they are clocks of the same time two time zones.
  • Fig. 5 shows a fourth embodiment of the present invention.
  • the astronomical timepiece includes a case 1, a dial 2, a pointer, a chronograph movement (not shown), a chronograph mechanism 3, and a needle pulling device (not shown).
  • the solar axis 30 and the earth hour hand Needle shaft 60 and Mars hour hand needle shaft 70 are non-concentric timing devices; dial 2 can be equipped with two or more sun planetary hour hand needles and pointers and scales respectively corresponding to the planets, and the planets are distinguished by characters. Identification 11.
  • the rotation direction of the corresponding clockwise axis of the corresponding star and sun day corresponds to the rotation direction of the planet
  • the point indicated by the hour hand is the rotation track of the time zone point
  • the horizontal line of the hour scale circle corresponds to the morning and dusk line of the celestial body
  • the upper semicircle scale is day and lower semicircle.
  • the non-concentric structure is that the earth hour hand shaft 60 is set at the center of the dial 2, and the corresponding hour scale 610 and minute and second scale 620 are located at the side of the dial 2;
  • the Mars hour hand axis 70, the corresponding Mars hour scale 710, and the Mars minute and second scale 720 are arranged below the dial 2;
  • the two sides of the center of the dial 2 are each provided with a digital code skipping device and a digital code skipping device 19.
  • the digital skip code 9 is set with the display of 91 at ten o'clock, 92 at 24 o'clock, 93 at the calendar, and 94 at the week.
  • the code skipping device 19 is provided with settings of 90 days of the earth year, 91 hours of the earth at ten hours, 900 days of the earth days at Mars, and 910 at ten hours of Mars.
  • the earth travel mechanism 6 operates in accordance with the traditional 24-hour system.
  • the invention is a miniature reproduction of the astronomical scene of the solar system, which can observe and compare the position of the coordinate point of the planet and the geometric position of the planets in the near future in real time, and when the corresponding planetary body is local, the angle of sight of people is deepened, and each planet is counted as a solar day
  • the definition corresponds to its natural law, and the difference between them can be easily measured by the proportional value.

Abstract

A recently planet astronomy clock, by which the planetary fiducial mark positions, geometric positions between planets near the sun and the corresponding planetary local time can be expediently real time observed, includes: a Mercury hand, a Venus hand, an Earth hand and a Mars hand, which are in turn mounted on the sun axle center in a traveltime caliber linkage chronology mechanism and indicate that corresponding hour hand axles of corresponding planets rotate a cycle during a solar day respectively, rotating around the sun axle according to the view point overlooked from the north celestial pole of the sun; and a Mercury annulus, a Venus annulus, an Earth annulus and a Mars annulus representing the planetary orbits respectively and arranged in turn on the dial surface from the axle center towards outside, in which the sun axle center in the chronology mechanism can be assembled as a coaxial structure or an uncoaxial structure together with the corresponding planetary hour hand axles and month hand axles, and the annuli are arranged around the corresponding hands respectively in the uncoaxial structure.

Description

近日行星天文钟表  Planetary Astronomical Clock
技术领域  Technical field
本发明涉及一种计时装置, 特别是一种近日行星太阳年、 太阳日运行和 计时的近日行星天文钟表。  The invention relates to a timing device, in particular to a perimeter planetary astronomical clock in which the planetary solar year, solar day runs and timing.
背景技术  Background technique
随着航天事业, 天文科学的发展进步,.人类对太阳系近日行星以及 外太空的探索、 研究力度日渐加大, 更激发普罗大众对航天技术, 天文 知识的普及和需求, 目前在公知的技术产品或日常生活品中, 缺乏一种 家庭或个人使用可靠, 经济方便的了解其他天体实时时空状态的产品; 由于系内行星绕日运行周期均是无理数, 不可以公约, 因此相互之间没 有明显的周期规律性, 人们更多的是通过天文台、 媒体等才获悉将要发 生的日食、 月食、 连珠等天文奇观; 目前在对外星球的实地探索以及研 究上, 人类作为外来物在使用时间概念上, 直接套用异域地球太阳日传 统的 24小时制地球时, 由于采用的是 24 X 60 X 60进制, 显然, 失去了 With the development of the space industry and astronomical science, human beings have been intensifying their exploration and research of the planets in the solar system and outer space, which has further stimulated the popularization and demand for space technology and astronomical knowledge among the general public. Or daily products, there is a lack of a product that is reliable for families or individuals to understand the real-time spatiotemporal state of other celestial bodies; because the orbiting cycles of planets in the system are irrational and cannot be agreed, there is no obvious relationship between them The regularity of the cycle, people only learn about the astronomical wonders such as eclipses, eclipses, renju that will occur through the observatory, the media, etc. At present, in the field exploration and research of the outer planet, humans as foreign objects use the concept of time When directly applying the traditional 24-hour system of the Earth's solar day on an exotic earth, it is obviously lost because it uses the 24 X 60 X 60 system.
"天文单位" 之便利意义, 无法在近日行星体系中, 通过普通钟表机械 原理, 利用简单、 方便的数学方式, 清楚、 形象、 直接地反映和掌握近 日行星之间的平面几何位置以及所对应行星本体太阳日的本地时; 如通 过其它途径获取这些数据, 则加大了技术成本和科技风险。 The convenient meaning of "astronomical unit" cannot clearly and visually reflect and grasp the plane geometric position between the planets in the near future and the corresponding planets by using simple and convenient mathematical methods in the planetary system of the near future. The local time of the ontological solar day; if these data are obtained through other channels, it will increase the technical costs and risks.
发明公开  Invention Disclosure
本发明的目的是克服上述现有技术中的不足之处而提供一种将太阳系天 文景象微缩在天文钟表上,通过拟定视点在太阳系天: 1匕极上俯视系内行星绕太 阳公转自转而定义的太阳年、太阳日运行规律以及相互之间三维时空, 通过运 用钟表机械原理, 使各行星一太阳日计时对应其自然规律作连动设置, 直接在 确认本 表盘平面形象地反映出来,而通过比例值可方便地计测出彼此之差值, 使人们 在科研及日常生活中可方便地实时观测对照所在行星坐标点位置与近日行星 间彼此的几何位置以及所对应行星本体本地时的近日行星天文钟表。 The purpose of the present invention is to overcome the deficiencies in the prior art described above and provide a miniature of the astronomical scene of the solar system on astronomical clocks. It is defined by the planned viewpoint on the solar system sky: 1 dagger poles top view of the planets in the system and rotate around the sun to define Of the solar year, solar day, and the three-dimensional space-time of each other. By using the principle of clocks and watches, the time of each planet ’s solar day is set in accordance with its natural law. The plane of the dial is vividly reflected, and the difference between each other can be easily measured through the proportional value, so that people can easily observe and compare the position of the coordinate point of the planet and the geometric position of the planets in the near future in scientific research and daily life. Corresponding planetary astronomical clock in the local time of the corresponding planetary body.
本发明的目的可以通过以下措施来达到: 这种近日行星天文钟表, 包括: 外壳、 表盘、 指针、 走时机芯、 年表机构、拔针装置, 其特殊之处在于: 该 钟表由一个表示相应行星在每一太阳日时针轴对应转动一圆周的走时机芯连 动年表机构中的太阳轴心上分别依次套装有水星指针、金星指针、地球指针、 火星指针, 并各行星指针遵循视点在太阳天北极俯视效果方向绕太阳轴心转 动, 且从其轴心向外的表盘面上排列行星轨迹依序为水星刻环、 金星刻环、 地球刻环、火星刻环的设置; 其中年表机构中太阳轴心与相应行星时针针轴、 月针针轴均可设置为同心结构或非同心结构; 非同心结构的各相应刻环均环 绕其指针排布。  The object of the present invention can be achieved by the following measures: This kind of planetary astronomical clock in the past includes: a casing, a dial, a pointer, a moving movement, a chronometer mechanism, and a needle pulling device. The special feature is that the clock is represented by a corresponding On each solar day, the hour axis of the planet rotates a circle corresponding to the time-lapse movement. The sun axis in the chronology mechanism is sequentially set with Mercury hands, Venus hands, Earth hands, and Mars hands. The direction of the effect of the sun-arc arctic top view rotates around the axis of the sun, and the planetary trajectories arranged on the dial surface outward from its axis are sequentially set by the rings of Mercury, the rings of Venus, the rings of Earth, and the rings of Mars; In the mechanism, the sun axis, the corresponding planetary hour hand, and the moon needle can be set as concentric structures or non-concentric structures; the respective engraved rings of non-concentric structures are arranged around their pointers.
相应的行星太阳日时针针轴 ft动方向均对应行星自转方向, 时针指示点 为时区点自转轨迹, 小时刻度圆的水平径线对应天体晨昏线, 其上半圆刻度 为日间而下半圆刻度为夜间, 且在盘面上设置行星区别字符标识。  The corresponding sun direction of the planetary sun on the hour hand ft axis corresponds to the planet's rotation direction. The hour hand indicates the time zone point rotation track. The horizontal axis of the hour scale circle corresponds to the morning and dusk line of the celestial body. The upper semicircle scale is daytime and the lower semicircle scale is At night, a planet distinguishing character logo is set on the disk.
所述的非同心结构为火星时针针轴位于表盘中心, 其对应的火星小时刻 度、火星分秒刻度位于表盘外侧; 年表机构设置在表盘上方; 地球时针针轴、 月针针轴以及对应的刻度设置在 ^盘下方; 表盘中心的两侧分别设置有地球 计时分针、 秒针、 分秒刻度或数孛跳码装置。 ' 所述的非同心结构为地球时针针轴、'月针针轴设置在表盘中心, 其对应 的小时刻度、分秒刻度和月相农历位于表盘外侧; 年表机构设置在表盘上方; 火星时针针轴及对应的火星小时刻度、 火星分秒刻度设置在表盘下方; 表盘 中心的两侧各设置有数字跳码装置。 The non-concentric structure is that the Martian hour hand axis is located at the center of the dial, and its corresponding Martian hour scale and Martian minute and second scale are located outside the dial; the chronology mechanism is arranged above the dial; the Earth hour hand axis, the moon hand axis, and the corresponding The scale is set below the ^ dial; the earth chronograph minute hand, second hand, minute and second scale or number jump code device are set on both sides of the center of the dial. The non-concentric structure described is the Earth's hour hand axis, and the 'Moon hand' axis is set at the center of the dial, and its corresponding hour scale, minute and second scale, and lunar phase lunar calendar are located outside the dial; the chronological mechanism is set above the dial; Mars hour hand The needle shaft and the corresponding Martian hour scale and Martian minute and second scale are set below the dial; the dial Digital code hopping devices are set on both sides of the center.
数字跳码装置分别设有十时制地球时显示、二十四时制显示、 日历显示、 星期显示以及地球年天数显示、十时制地球时显示、火星年地球日天数显示、 十时制火星时显示设置。  The digital code skipping device is provided with ten-hour earth time display, twenty-four hour display, calendar display, day of the week display and days of the earth year, ten-hour earth time display, year of the earth day of Mars, ten-hour mars Display settings.
所述的同心结构为年表机构行星轨迹外圆周设置地球小时刻度环、 分秒 刻度环, 火星小时刻度环、 火星分秒刻度环; 月相农历位于表盘外侧; 所有 针轴线重合中心。  The concentric structure is provided with an earth hour scale ring, a minute second scale ring, a Mars hour scale ring, and a Mars minute and second scale ring on the outer circumference of the planetary trajectory of the chronology mechanism; the moon phase lunar calendar is located outside the dial; all needle axes coincide with the center.
所述表盘中均可分别设置两个以上各自对应行星的太阳日时针针轴以及 指针和刻度, 并且可由数字跳码装置樹奂。 所述的表盘、 指针所显示的技术效果均可用包含光电式显示元件构成的 屏幕显示樹奂。  Each of the dials can be provided with two or more sun-day hour and hour axes, hands, and scales respectively corresponding to the planets, and can be tree-chirped by a digital code-hopping device. The technical effects displayed by the dial and the hands can be displayed on the screen with a photoelectric display element.
本发明相比现有技术, 具有如下优点:  Compared with the prior art, the present invention has the following advantages:
1.将年表机构和行星走时机构对应在中国太极图案双鱼眼位置, 其设计 理念和视觉效果更充分体现太阳系行星在绕太阳公转同时而自转的自然彼此 依存规律, 而对应表盘外端刻 , 从零时开始新的一天随白鱼尾曲线的展开 日光渐强直至午时(上午), 之后又随深色鱼尾曲线的展开日光渐弱直至零时 (下午), 而双鱼之间的互动形象更是目前天文科学已探明的星云运行变形 图, 因此 ίΐ寺别适合作天文教学仪表。  1. Correspond the chronology mechanism and planetary travel time mechanism to the position of the double fisheye of the Chinese Taiji pattern. Its design concept and visual effects more fully reflect the natural interdependence of the planets of the solar system while orbiting around the sun. The new day starts at zero with the white fish tail curve unfolding and the daylight gradually becomes stronger until noon (morning), after which the dark fish tail curve unfolds with the daylight waning until zero hour (afternoon). It is the deformation map of the nebula that has been proved by astronomy science at present, so ΐΐ Temple is not suitable as an astronomy teaching instrument.
2.完全改变了传统的计时方法和装置, 且结构简单, 内涵丰富, 形象地 反映了太阳系内行星绕太阳公转而定义的太阳年、 太阳日运行规律以及符合 该运行规律的各行星机构连动的设置, 清楚、 直接、 形象地反映太阳系内各 行星相互之间的三维时空。 由于表针按 "自转方向" 旋转并增设同轴或非同 轴的其它行星针构件, 使实时显示、 同歩对照地球各时区时刻直接、 易读, 所以表盘具有模拟时空的效果。 2. The traditional timing method and device have been completely changed, and its structure is simple and rich in content, which vividly reflects the solar year, solar day operation rules defined by the planets in the solar system orbiting the sun, and the linkage of planetary mechanisms that conform to the operation rules. The setting clearly, directly and vividly reflects the three-dimensional space-time of each planet in the solar system. Since the hands rotate in the "rotation direction" and add coaxial or non-uniform The other planetary needle members of the shaft make the real-time display and peer-to-peer direct comparison of the time of the Earth's time zones, so the dial has the effect of simulating time and space.
3.根据实际需要, 该近日行星天文钟表表盘可用包含光电式显示元件构 成的屏幕显示装置或递进式数字跳码装置替换。 也可以制成指针式与电子显 示共存于一个表盘的同一产品上。  3. According to actual needs, the recent planetary astronomical clock dial can be replaced with a screen display device consisting of a photoelectric display element or a progressive digital code hopping device. It is also possible to make the pointer and electronic display coexist on the same product on one dial.
附图说明  BRIEF DESCRIPTION OF THE DRAWINGS
图 1是本发明年表机构的行星轨迹环、指针及针轴的示意图。  FIG. 1 is a schematic diagram of a planetary track ring, a pointer and a needle shaft of the chronology mechanism of the present invention.
图 2是本发明年表机构太阳轴心与行星时针针轴同轴的第一种构造的结 构示意图。  Fig. 2 is a schematic structural view of a first structure in which the sun axis of the chronology mechanism of the present invention is coaxial with the planetary hour hand axis.
图 3是本发明年表机构太阳轴心与行星时针针轴同轴的第二种构造的结 构示意图。  FIG. 3 is a schematic structural view of a second structure in which the sun axis of the chronology mechanism of the present invention is coaxial with the planetary hour hand axis.
图 4是本发明年表机构太阳轴心与行星时针针轴非同轴的第一种构造的 结构示意图。  FIG. 4 is a schematic structural view of a first structure in which the sun axis of the chronology mechanism of the present invention is non-coaxial with the planetary hour hand axis.
图 5是本发明年表机构太阳轴心与行星时针针轴非同轴的第二种构造的 结构示意图。  FIG. 5 is a schematic structural diagram of a second structure in which the sun axis of the chronology mechanism of the present invention is non-coaxial with the planetary hour hand axis.
图中, 夕卜壳 1、 表盘 2、 年表机构 (S) 3、太阳轴心 30、 水星针轴 31、 水 星刻环 310、 水星指针 311、金皇针轴 32、 金星刻环 320、 金星指针 321、 ' 地球针轴 33、 地球刻环 330、地球指针 331、 公月字符 332、 冬至字符 333、 夏至字符 334、火星针轴 34、火星刻环 340、火星指针 341、地球走时机构' ( E ) 6、地球时针针轴 60、 时针 61、小时刻度 610、水平径线 611、分针 62、分秒 刻度 620、秒针 63、 火盧走时机构(M ) 7、 火星时针针轴 70、 火星时针 71、 火星小时刻度 710、 火星分针 72、 火星分秒刻度 720、 火星秒针 73、 月相机 构 8、月针针轴 80、月针 81、月相农历 810、数字跳码装置 9、数字跳码装置In the picture, Xi Bu shell 1, dial 2, chronological mechanism (S) 3, solar axis 30, Mercury pin shaft 31, Mercury engraved ring 310, Mercury pointer 311, Golden Emperor needle 32, Venus engraved ring 320, Venus Hands 321, 'Earth pin shaft 33, Earth engraved ring 330, Earth pointer 331, public month character 332, winter solstice character 333, summer solstice character 334, Mars pin shaft 34, Mars engraved ring 340, Mars pointer 341, Earth travel time mechanism' ( E) 6. Earth hour hand axis 60, hour hand 61, hour scale 610, horizontal diameter 611, minute hand 62, minute and second scale 620, second hand 63, Hulu time mechanism (M) 7, Mars hour hand axis 70, Mars hour hand 71, Mars Hour Scale 710, Mars Minute Hand 72, Mars Minute Second Scale 720, Mars Second Hand 73, Moon Camera Structure 8, Moon Needle Axis 80, Moon Needle 81, Moon Phase Lunar Calendar 810, Digital Code Jump Device 9, Digital Code Jump Device
19、地球年天数 90、火星年天数 900、十时制地球时 91、十时制火星时 910、 二十四时制 92、 日历 93、 星期 94、 十时制 d字符 10、 行星区别字符 11。 19.90 days in the Earth year, 900 days in the Martian year, 91 hours in the ten hour system, 910 hours in the Martian system, 92 hours in the tenth system, calendar 93, days of the week, 94 d characters, 10, planets .
最佳实施例  Best embodiment
本发明下面将结合附图作进一歩详述:  The present invention will be described in detail below with reference to the drawings:
本发明主要涉及了近日行星天文钟表的表盘结构, 很显然, 采用现有机 械表或石英表的成熟技术可设计相应的制式处理机构、 调整控制机构、 送配 机构、 走针机构及显示机构, 其结构可以是多种多样的, 这并非本发明的重 占  The present invention mainly relates to the dial structure of recent planetary astronomical clocks. Obviously, the mature technology of existing mechanical watches or quartz watches can be used to design the corresponding standard processing mechanism, adjustment control mechanism, delivery mechanism, needle movement mechanism and display mechanism. The structure can be various, which is not the occupation of the present invention
图 1、 图 2示出了本发明的第一个实施例。  Figures 1 and 2 show a first embodiment of the invention.
请参阅图 1所示, 该天文表包括: 外壳 1、 表盘 2、指针、走时机芯(未 图示)、年表机构 3、拔针装置(未图示),它由一个表示相应行星在每一太阳 日时针轴对应转动一圆周的走时机芯连动年表机构 3中的太阳轴心 30上分别 依次套装有水星指针 311、 金星指针 321、地球指针 331、 火星指针 341, 各 行星指针遵循视点在太阳天北极俯视效桌方向绕太阳轴心转动, 且从其轴心 向外的表盘 2面上排列行星轨迹依序 水星刻环 310、金星刻环 320、地球刻 环 330、火星刻环 340的设置;行星走时机芯中的时针针轴在每一太阳日对应 转满一圆周同时连动水星针轴 31前移 1 I水星年地球日天数圏, 并同时由水 星针轴 31连动金星针轴 32前移 ί I金星年地球日天数圏,并同时由金星针轴 32连动地球针轴 33前移 1 /地球年天薮圈, 并同时由地球针轴 33连动火星 针轴 34前移 1 I火星年地球日天数圈; 在地球刻环 330中, 将地球太阳年中 的 "冬至"刻度 333标注在地球刻环 330下方, 将 "夏至"刻度 334标注在 地球刻环 330的上方, 且将公历月份 1 ~ 12沿公转方向排列, 上述的设置为 其它行星的平面位置确定了以地球为标准的参考坐标点, 也即是调校其它行 星指针相对位置的参考对应点, 由于系内行星绕日运行周期均是无理数, 因 此在运行一段时间后, 可通过拨针装置校正各行星之间坐标点位置, 图中通 过观测各行星指针与太阳轴心相对角度, 即可方便地测知近日行星之间的相 对平面位置。 Please refer to FIG. 1, the astronomical watch includes: a case 1, a dial 2, a pointer, a movement movement (not shown), a chronology mechanism 3, a needle pull device (not shown), which is indicated by a corresponding planet in The hour axis of each solar day rotates in a circle corresponding to the clockwise movement of the chronograph mechanism 3. The sun axis 30 in the chronology mechanism 3 is sequentially set with a Mercury pointer 311, Venus pointer 321, Earth pointer 331, Mars pointer 341, and planetary hands. Follow the viewpoint to rotate around the axis of the sun in the direction of the arctic view of the North Pole of the Sun, and arrange the planetary trajectories on the 2 faces of the dial outward from the axis, sequentially Mercury Engraved Ring 310, Venus Engraved Ring 320, Earth Engraved Ring 330, Mars Engraved The setting of ring 340; the hour hand shaft in the planetary movement moves correspondingly to a full circle on each solar day while moving the Mercury needle shaft 31 forward 1 I Mercury year Earth day number 圏, and at the same time connected by the Mercury needle shaft 31 Move Venus Needle Axis 32 forward I I Venus Year Earth Day Days 圏, and simultaneously move Venus Needle Axis 32 Earth Needle Axis 33 Forward 1 / Earth Year Ten Thousand Circle, and also Earth Needle Axis 33 Mars Needle Axis 34 moves forward by 1 I Martian Earth Days; In the earth engraved ring 330, the "winter solstice" scale 333 in the earth's solar year is marked below the earth engraved ring 330, and the "summer solstice" scale 334 is marked in the Above the earth engraved ring 330, and the calendar month 1 to 12 are arranged along the revolution direction. The above setting determines the reference position of the planet as the standard position of the other planets, which is to adjust the relative positions of the pointers of other planets. With reference to the corresponding points, since the orbiting cycles of the planets in the system are irrational, after a period of operation, the position of the coordinate points between the planets can be corrected by the needle setting device. In the figure, the relative angle between the pointers of the planets and the axis of the sun is observed. , You can easily determine the relative plane position between planets in the near future.
请参阅图 2所示, 年表机构 3中太阳轴心 30与相应地球时针针轴、 月针针轴均设置为同轴心结构, 相应的行星太阳日时针针轴转动方向均 对应行星自转方向, 年表机构 3 行星轨迹外圆周设置地球小时刻度环 330 , 分秒刻度环 620 ; 月相农历 810位于表盘 2外侧, 所有针轴线重合 中心, 时针 61指示点为时区点自转轨迹,小时刻度圆的水平径线 611对 应天体晨昏线,其上半圆刻度为日间而下半圆刻度为夜间, 当时针 61转 满一圆周时,连动月针 81递进一刻度,.比较时针 61与月针 81的几何角 度即可测算出时区点的实时月相和位置。  Please refer to FIG. 2. In the chronology mechanism 3, the sun axis 30 and the corresponding earth hour clock and moon needle axis are set as concentric structures, and the corresponding planetary sun hour clock axis rotation direction corresponds to the planet rotation direction. The chronology mechanism 3 is provided with an earth hour scale ring 330 and a minute and second scale ring 620 on the outer circumference of the planetary trajectory; the moon phase lunar calendar 810 is located outside the dial 2 and all the needle axes coincide with the center, the hour 61 indicates the time zone point rotation track, and the hour scale circle The horizontal diameter line 611 corresponds to the morning and dusk line of the celestial body. The upper semicircle scale is day and the lower semicircle scale is night. The geometric angle of 81 can be used to calculate the real-time moon phase and position of the time zone point.
图 3示出了本发明的第二个实施例。  Fig. 3 shows a second embodiment of the present invention.
请参阅图 3所示, 该天文表包括: 外壳 1、 表盘 2、 指针、 走时机芯 (未图示)、 年表机构 3、 拔针装置('未图示), 它由一个表示相应行星 在每一太阳日时针轴对应转动一圆周的走时机芯连动年表机构 3中的太 阳轴心 30上分别依次套装有水星指针 311、金星指针 321、地球指针 331、 火星指针 341, 各行星指针遵循视点在太阳天北极俯视效果方向绕太阳 轴心转动, 且从其轴心向外的表盘 2面上排列行星轨迹依序为水星刻环 310、 金星刻环 320、 地球刻环 330、 火星刻环 340的设置; 年表机构 3 中太阳轴心 30与相应行星时针针轴、月针针轴均设置为同轴心结构; 年 表机构 3行星轨迹外圆周设有地球走时机构 6和火星走时机构 7, 在地 球走时机构中, 小时刻度 610和时针 61以及分、 秒刻度 620和分针 62 秒针 63设在行星轨迹环外侧,在火星走时机构中, 火星小时刻度 710和 火星时针 71以及火星分、秒刻度 720和火星分针 72火星秒针 73设在地 球分、 秒刻度 620外侧, 且在盘面上设置行星区别字符标识 11。 而月相 农历 810和月针 81设在表盘外侧, 所有针轴线重合中心; 相应的行星太 阳日时针针轴转动方向均对应水星、地球、火星自转方向(金星相反向), 时针 61指示点为时区点自转轨迹,小时刻度圆的水平径线 611对应天体 晨昏线,其上半圆刻度为日间而下半圆刻度为夜间, 当时针 61转満一圆 周时,连动月针 81递进一刻度 比较时针 61与月针 81的几何角度即可 测算出时区点的实时月相和位置。 在地球刻环 330中, 将地球太阳年中 的 "冬至" 刻度 333标注在地球刻环 3:30下方, 将 "夏至" 刻度 334标 注在地球刻环 330的上方, 且将公历月份 1 ~ 12沿公转方向排列, 上述 的设置为其它行星的平面位置确定了以地球为标准的参考坐标点, 也即 是调校其它行星指针相对位置的参考对应点, 由于系内行星绕日运行淘 期均是无理数, 因此在运行一段时间后, 可通过拨针装置校正各行星之 间坐标点位置, 图中通过观测各行星指针与太阳轴心相对角度, 即可方 便地测知近日行星之间的相对平面位置。 所有针轴线重合中心, 地球太 阳曰时针针轴转动方向均对应自转方向,时针 61指示点为时区点自转轨 迹, 小时刻度圆的水平径线 611'对应天体晨昏线, 其上半圆刻度为日间 而下半圆刻度为夜间, 图 3中, 为与传统二十四小时制区分, 均在表盘 2上设置十时制 d字符标识 10, 地球走时机构 6和火星走时机构 7的一 太阳日计量单位相同, 即 10小时 x lOO分 x lOO秒, 区别于各自走时机 构 '秒' 周期间隔总和对应本体一太阳日时间间隔。 其行星之间相互时 间之差可通过间隔比例值直接换算: Please refer to FIG. 3, the astronomical watch includes: a case 1, a dial 2, a pointer, a movement movement (not shown), a chronograph mechanism 3, a needle pull device ('not shown), which is represented by a corresponding planet The sun axis 30 in the chronological mechanism linked to the chronological mechanism 3 that rotates a circle corresponding to each solar day is sequentially set with a Mercury pointer 311, Venus pointer 321, Earth pointer 331, Mars pointer 341, and each planet. The pointer follows the viewpoint and rotates around the axis of the sun in the direction of the North Pole top view of the solar sky, and the planetary trajectories arranged on the dial 2 face outward from its axis are sequentially Mercury Engraved Ring 310, Venus Engraved Ring 320, Earth Engraved Ring 330, Mars Setting of the engraved ring 340; chronology mechanism 3 The central sun axis 30 and the corresponding planetary hour hand and moon needle shafts are set to be concentric; the chronology mechanism 3 is provided with an earth travel mechanism 6 and a Mars travel mechanism 7 on the outer circumference of the planetary trajectory. In the earth travel mechanism, Hour scale 610 and hour hand 61, and minute and second scale 620 and minute hand 62. Second hand 63 is located outside the planetary track ring. In the Mars hour mechanism, Mars hour scale 710 and Mars hour hand 71, and Mars minute and second scale 720 and Mars minute hand 72. The second hand 73 is provided outside the earth minute and second scales 620, and a planet distinguishing character mark 11 is provided on the disk surface. The Moon Phase Lunar Calendar 810 and the Moon Hand 81 are located on the outside of the dial, and all the needle axes coincide with the center of the planet. The corresponding rotation directions of the planetary sun and hour hand axis correspond to the rotation directions of Mercury, Earth, and Mars (the opposite direction of Venus). Time zone point rotation trajectory. The horizontal axis 611 of the hour scale circle corresponds to the morning and dusk line of the celestial body. The upper semicircle scale is day and the lower semicircle scale is night. When the hand 61 turns a circle, the moon hand 81 advances to a scale. By comparing the geometric angles of the hour hand 61 and the moon hand 81, the real-time moon phases and positions of the time zone points can be calculated. In the earth engraved ring 330, the "Winter Solstice" scale 333 in the earth's solar year is marked below the earth engraved ring 3:30, the "summer solstice" scale 334 is marked above the earth engraved ring 330, and the Gregorian calendar month is 1 to 12 Arranged along the direction of revolution, the above settings determine the reference coordinates of the planet as the standard for the plane positions of other planets, that is, the reference corresponding points for adjusting the relative positions of the pointers of other planets. It is an irrational number, so after a period of operation, the position of the coordinate points between the planets can be corrected by the needle setting device. The relative angle between the planets in the near future can be easily measured by observing the relative angle between each planet's pointer and the axis of the sun. Plane position. All needle axes coincide with the center. The direction of rotation of the hour hand of the earth sun corresponds to the rotation direction. The point indicated by the hour hand 61 is the time zone rotation track. The horizontal axis 611 'of the hour scale circle corresponds to the morning and dusk line of the celestial body. The upper semicircle scale is daytime. The lower semicircle scale is nighttime. In Figure 3, it is distinguished from the traditional 24-hour system, which is on the dial. The ten-hour d character mark 10 is set on 2. The unit of measurement of a solar day for the Earth travel mechanism 6 and the Mars travel mechanism 7 is the same, that is, 10 hours x 100 minutes x 100 seconds, which is different from the total of the time interval of the seconds of the travel mechanism. Ontology-sunday interval. The time difference between the planets can be directly converted by the interval ratio value:
由于, 水星两次日出的间隔 = 1760.0000 d小时(地球时)  Because the interval between Mercury's two sunrises = 1760.0000 d hours (Earth time)
金星两次日出的间隔 = 1170.0000 d小时(地球时)  The interval between the two sunrises of Venus = 1170.0000 d hours (Earth time)
地球两次日出的间隔 = 10.0000 d小时(地球时)  Interval between the two sunrises of the Earth = 10.0000 d hours (Earth time)
火星两次日出的间隔 = 10.2625 d小时(地球时)  Interval between two Mars sunrises = 10.2625 d hours (Earth time)
因此有: 7J星 "行星秒" 比值 = 176.00000 ( W )  So there is: The ratio of 7J star "planet second" = 176.00000 (W)
金星 "行星秒" 比值 = 117.00000 ( H )  Venus "planet second" ratio = 117.00000 (H)
地球 "行星秒 " 比值 := 1.00000 ( E )  Earth "planet second" ratio: = 1.00000 (E)
火星 "行星秒" 比值 = 1.02625 ( M )  Mars "Planetary Seconds" Ratio = 1.02625 (M)
所以换算公式为: 地球本地时 ÷ Xt应的行星 "行星秒" 比值  So the conversion formula is: the ratio of the planet's local time ÷ Xt should be "planet second"
=对应的行星相同时区本地时  = Corresponding planets in the same time zone local time
图 3中当两个走时机构 '秒' 周期间隔相等时, 即是同星二时区计时钟 ¾ο , ! In Figure 3, when the intervals of the two seconds of the time-traveling mechanism are equal, they are the clocks in the same time two time zones .
图 4示出了本发明的第三个实施例。 '  Fig. 4 shows a third embodiment of the present invention. '
请参阅图 4所示, 该天文钟表包括外壳 1、 表盘 2, 指针、 走时机芯(未 图示)、 年表机构 3、拔针装置 (未图示), 其中年表机构 3中太阳轴心 30与 地球时针针轴 60、 月针针轴 80以及火星时针针轴 70为非同轴心设计的计时 装置, 表盘 2均可分别设置两个以上各自对应行星的太阳日时针针轴以及指 针和刻度, 且在盘面上设置行星区别字符标识 11。 同样, 相应的行星太阳日 时针针轴转动方向均对应行星自转方向, 时针指示点为时区点自转轨迹, 小 时刻度圆的水平径线对应天体晨昏线, 其上半圆刻度为日间而下半圆刻度为 夜间; 所述的非同轴心结构为火星时针针轴 70位于表盘 2中心, 其对应的小 时刻度 710、 分秒刻度 720位于表盘 2外侧; 年表机构 3设置在表盘 2上方; 地球时针针轴 6、 月针针轴 80以及对应的刻度设置在表盘 2下方; 表盘 2中 心的两侧分别设置有地球计时分针 62、秒针 63、分秒刻度 620或数字跳码装 置 9。 数字跳码装置 9分别设有十时制地球时 91显示、二十四时制 92显示、 日历 93显示、 星期 9 显示的设置。 图 4中当两个走时机构 '秒, 周期间隔 相等时, 即是同星二时区计时钟表。 Please refer to FIG. 4, the astronomical timepiece includes a case 1, a dial 2, a pointer, a time movement (not shown), a chronograph mechanism 3, and a needle pulling device (not shown), among which the sun axis in the chronometer mechanism 3 The heart 30 is a non-concentric timing device with the Earth hour hand axis 60, the moon hand axis 80, and the Mars hour hand axis 70. The dial 2 can be provided with two or more sun day and hour hand shafts and hands corresponding to the planets, respectively. And the scale, and a planet distinguishing character mark 11 is set on the disk surface. Similarly, the corresponding planetary solar day The rotation direction of the hour hand axis corresponds to the rotation direction of the planet, the point indicated by the hour hand is the rotation track of the time zone point, the horizontal axis of the hour scale circle corresponds to the morning and dusk line of the celestial body, the upper semicircle scale is daytime and the lower semicircle scale is nighttime; The concentric structure is that the Martian hour hand 70 is located at the center of dial 2, and its corresponding hour scale 710 and minute and second scale 720 are located outside dial 2. The chronology mechanism 3 is set above dial 2. Earth hour hand 6 and moon hand The shaft 80 and the corresponding scale are set below the dial 2. The two sides of the center of the dial 2 are respectively provided with the earth chronograph minute hand 62, the second hand 63, the minute and second scale 620 or the digital code skipping device 9. The digital code skipping device 9 is provided with the settings of display of 91 at ten o'clock, 92 at 24 o'clock, display of calendar 93, and display of week 9 respectively. In FIG. 4, when the two time-traveling mechanisms are 'seconds' and the cycle interval is equal, they are clocks of the same time two time zones.
图 5示出了本发明的第四个实施例。  Fig. 5 shows a fourth embodiment of the present invention.
请参阅图 5所示, 该天文钟表包括外壳 1、表盘 2、 指针、走时机芯(未 图示 )、年表机构 3、拔针装置(未图示), 其太阳轴心 30与地球时针针轴 60 以及火星时针针轴 70为非同轴心设计的计时装置;表盘 2均可分别设置两个 以上各自对应行星的太阳日时针针轴以及指针和刻度, 且在盘面上设置行星 区别字符标识 11。 同样, 相应的 星太阳日时针针轴转动方向均对应行星自 转方向, 时针指示点为时区点自转轨迹, 小时刻度圆的水平径线对应天体晨 昏线, 其上半圆刻度为日间而下半圆刻 为夜间; 所述的非同心结构为地球 时针针轴 60设置在表盘 2中心, 其对应的小时刻度 610、 分秒刻度 620位于 表盘 2夕卜侧; 年表机构 3设置在表盘 2'上方; 火星时针针轴 70及对应的火星 小时刻度 710、火星分秒刻度 720设置在表盘 2下方;表盘 2中心的两侧各设 置有数字跳码装置 和数字跳码装置 19。 数字跳码 9分别设有十时制地球时 91显示、二十四时制 92显示、 日历 93显¾、星期 94显示的设置。左侧数字 跳码装置 19分别设有地球年天数 90、 十时制地球时 91显示、 火星年地球日 天数 900显示、 十时制火星时 910显示的设置。 图 5中, 地球走时机构 6均 对应传统的二十四小时制运行。 Please refer to FIG. 5, the astronomical timepiece includes a case 1, a dial 2, a pointer, a chronograph movement (not shown), a chronograph mechanism 3, and a needle pulling device (not shown). The solar axis 30 and the earth hour hand Needle shaft 60 and Mars hour hand needle shaft 70 are non-concentric timing devices; dial 2 can be equipped with two or more sun planetary hour hand needles and pointers and scales respectively corresponding to the planets, and the planets are distinguished by characters. Identification 11. Similarly, the rotation direction of the corresponding clockwise axis of the corresponding star and sun day corresponds to the rotation direction of the planet, the point indicated by the hour hand is the rotation track of the time zone point, the horizontal line of the hour scale circle corresponds to the morning and dusk line of the celestial body, and the upper semicircle scale is day and lower semicircle. It is nighttime; the non-concentric structure is that the earth hour hand shaft 60 is set at the center of the dial 2, and the corresponding hour scale 610 and minute and second scale 620 are located at the side of the dial 2; The Mars hour hand axis 70, the corresponding Mars hour scale 710, and the Mars minute and second scale 720 are arranged below the dial 2; the two sides of the center of the dial 2 are each provided with a digital code skipping device and a digital code skipping device 19. The digital skip code 9 is set with the display of 91 at ten o'clock, 92 at 24 o'clock, 93 at the calendar, and 94 at the week. Number on the left The code skipping device 19 is provided with settings of 90 days of the earth year, 91 hours of the earth at ten hours, 900 days of the earth days at Mars, and 910 at ten hours of Mars. In FIG. 5, the earth travel mechanism 6 operates in accordance with the traditional 24-hour system.
上述的图 2、 图 3、 图 4、 图 5的表盘 2中, 所述的表盘和指针所显示的 技术效果均可用包含光电式显示元件构成的屏幕显示装置替换。  In the above dial 2 of FIG. 2, FIG. 3, FIG. 4, and FIG. 5, the technical effects displayed by the dial and hands can be replaced by a screen display device including a photoelectric display element.
本发明是太阳系天文景象微缩再现, 可实时观测对照所在行星坐标点位 置与近日行星之间的彼此几何位置, 以及所对应行星本体本地时, 加深了人 们的视线角度, 使各行星一太阳日计时定义对应其自然规律上, 而通过比例 值可方便计测出彼此之差。  The invention is a miniature reproduction of the astronomical scene of the solar system, which can observe and compare the position of the coordinate point of the planet and the geometric position of the planets in the near future in real time, and when the corresponding planetary body is local, the angle of sight of people is deepened, and each planet is counted as a solar day The definition corresponds to its natural law, and the difference between them can be easily measured by the proportional value.
以上所述仅为本发明专利的较佳实施例,凡依本发明专利要求范围所做的 均等变化与修饰, 皆应属本发明专利权利要求的涵盖范围。  The above description is only a preferred embodiment of the patent of the present invention, and all equivalent changes and modifications made in accordance with the scope of the patent claims of the present invention shall fall within the scope of the patent claims of the present invention.
工业上的应用  Industrial applications

Claims

权 利 要 求 书 Claim
1、一种近日行星天文钟表, 包括: 夕卜壳、表盘、指针、 走时机芯、年表 机构、 拔针装置, 其特征在于: 该钟表由一个表示相应行星在每一太阳日时 针轴对应转动一圆周的走时机芯连动年表机构中的太阳轴心上分别依次套装 有水星指针、 金星指针、 地球指针、 火星指针, 并各行星指针遵循视点在太 阳天北极俯视效果方向绕太阳轴心转动, 且从其轴心向外的表盘面上排列行 星轨迹依序为水星刻环、 金星刻环、 地球刻环、 火星刻环的设置; 其中年表 机构中太阳轴心与相应行星时针针轴、 月针针轴均可设置为同心结构或非同 心结构; 非同心结构的各相应刻环均环绕其指针排布。 1. A recent planetary astronomical timepiece, comprising: a sunburst case, a dial, a pointer, a time movement, a chronology mechanism, and a needle-drawing device, characterized in that the timepiece corresponds to a clock axis corresponding to each planet on each solar day A clockwise movement of a clockwise movement linked to the chronological mechanism of the chronological mechanism is in turn set with Mercury hands, Venus hands, Earth hands, Mars hands, and each planetary hand follows the viewpoint in the direction of the sun and North Pole overhead effect around the sun axis The heart rotates, and the planetary trajectories arranged on the dial surface outward from its axis are sequentially set by the Mercury engraved ring, Venus engraved ring, Earth engraved ring, and Mars engraved ring; the chronological mechanism of the sun axis and the corresponding planetary hour hand Both the needle shaft and the moon needle shaft can be set as concentric structure or non-concentric structure; each corresponding engraved ring of non-concentric structure is arranged around its pointer.
2、根据权利要求 1所述的近日行星天文钟表, 其特征在于: 所述的地球 刻环中, 将地球太阳年中的 "冬至" 刻度标注在地球刻环下方, 将 "夏至" 刻度标注在地球刻环的上方, 且将公历月份 1 ~ 12沿公转方向排列。 2. The planetary astronomical clock of near planet according to claim 1, characterized in that: the scale of "solar solstice" in the earth's solar year is marked below the scale of the earth's sun, and the scale of "summer solstice" is marked on The top of the earth's engraved ring, and the calendar month 1 ~ 12 are arranged in the direction of revolution.
'3、根据权利要求 1所述的近日行星天文钟表, 其特征在于: 相应的行星 太阳日时针针轴转动方向均对应行星自转方向, 时针指示点为时区点自转轨 迹, 小时刻度圆的水平径线对应天体晨昏线, 其上半圆刻度为日间而下半圆 亥! 1度为夜间, 且在盘面上设置行星区别字符标识。 3. A near planetary astronomical clock according to claim 1, characterized in that: the respective planetary sun hour clock axis rotation direction corresponds to the planet rotation direction, the hour hand indicates the time zone point rotation track, the horizontal diameter of the hour scale circle The line corresponds to the morning and dusk line of the celestial body. Its upper semicircle scale is day and lower semicircle! 1 degree is at night, and a planet distinguishing character mark is set on the disk surface.
4、根据权利,要求 1所述的近日行星天文钟表, 其特征在于: 所述的非同 心结构为火星时针针轴位于表盘中心, 其对应的火星小时刻度、 火星分秒、刻 度位于表盘外侧; 年表机构设置在表盘 ±方; 地球时针针轴、 月针针轴以及 对应的刻度设置在表盘下方; 表盘中心的两侧分别设置有地球计时分针、 秒 针、 分秒刻度或数字跳码装置。 4. The celestial planetary astronomical clock according to claim 1, characterized in that: said non-concentric structure is that the Martian hour hand axis is located at the center of the dial, and its corresponding Martian hour scale, Martian minutes and seconds, and scale are located outside the dial; The chronology mechanism is set on the dial ± square; the earth hour hand, moon hand, and the corresponding scale are set below the dial; the two sides of the center of the dial are respectively equipped with the earth chronograph minute hand, second hand, minute second scale or digital code skipping device.
5、根据权利要求 1所述的近日行星天文钟表, 其特征在于: 所述的非同 心结构为地球时针针轴、 月针针轴设置在表盘中心, 其对应的小时刻度、 分 秒刻度和月相农历位于表盘外侧; 年表机构设置在表盘上方; 火星时针针轴 及对应的火星小时刻度、 火星分秒刻度设置在表盘下方; 表盘中心的两侧各 设置有数字跳码装置。 5. The periplanetary astronomical clock according to claim 1, characterized in that: said non-concentric structure is that the earth's hour hand axis and moon hand axis are arranged in the center of the dial, and the corresponding hour scale, minute second scale and month The lunar calendar is located on the outside of the dial; the chronology mechanism is set above the dial; the Mars hour hand and the corresponding Mars hour and minute scales are set below the dial; digital code skipping devices are set on both sides of the center of the dial.
6、根据权利要求 4或 5所述的近日行星天文钟表, 其特征在于: 数字跳 码装置分别设有十时制地球时显示、 二十四时制显示、 日历显示、 星期显示 以及地球年天数显示、 十时制地球时显示、火星年地球日天数显示、 十时制 火星时显示设置。 6. The planetary astronomical clock of near day according to claim 4 or 5, characterized in that: the digital code-hopping device is provided with a ten-hour earth time display, a twenty-four hour display, a calendar display, a day of the week display and the number of days in the earth year. Display, 10-hour Earth Time Display, Martian Earth Days and Days, 10-Hour Mars Display Settings.
7、根据权利要求 1所述的近日行星天文钟表, 其特征在于: 所述的同心 缚构为年表机构行星轨迹外圆周设置地球小时刻度环、 分秒刻度环, 火星小 时刻度环、火星分秒刻度环; 月相农历位于表盘外侧; 所有针轴线重合中心。 7. The perihelical planetary astronomical clock according to claim 1, characterized in that: the concentric confinement structure is provided with an earth hour scale ring, a minute and second scale ring, a Mars hour scale ring, and a Martian minute on the outer circumference of the chronology mechanism planetary trajectory. Second scale ring; Lunar phase lunar calendar is located outside the dial; all needle axes coincide with the center.
8、根据权利要求 1所述的近日行星天文钟表, 其特征在于: 所述表盘中 均可分别设置两个以上各自对应行星的太阳日时针针轴以及指针和刻度, 并 且可由数字跳码装置替换。 8. The astronomical astronomical clock according to claim 1, characterized in that: each of said dials can be provided with two or more sun planetary hour hand needle shafts and pointers and scales respectively corresponding to the planets, and can be replaced by a digital code jumping device .
9、根据权利要求 1所述的近日行星天文钟表,其特征在于:所述的表盘、 指针所显示的技术效果均可用包含光电式显示元件构成的屏幕显示替换。  9. The periplanetary astronomical clock according to claim 1, wherein the technical effects displayed by the dial and the hands can be replaced by a screen display including a photoelectric display element.
PCT/CN2005/000621 2004-05-13 2005-05-08 A recently planet astronomy clock WO2005111743A1 (en)

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Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106909055A (en) * 2015-12-23 2017-06-30 天津海鸥表业集团有限公司 Watch with lunar calendar indicating mechanism
CN106909054A (en) * 2015-12-23 2017-06-30 天津海鸥表业集团有限公司 Lunar calendar leap month actuating mechanism of clock
FR3070509A1 (en) * 2017-08-31 2019-03-01 Marc Sauzay ELECTRONIC WATCHING EQUIPMENT INDICATING THE TIME AND AZIMUT OF THE SUN BY MEANS OF A SINGLE NEEDLE INDICATOR
EP3454140A1 (en) * 2017-09-08 2019-03-13 ETA SA Manufacture Horlogère Suisse Astronomical clock device

Families Citing this family (6)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
DE102005010604B3 (en) * 2005-03-06 2006-07-20 Lange Uhren Gmbh Clock, has hour wheels, where one hour wheel supports hour hand and is adjusted using rotatable spindle and other hour wheel or hour pipe supporting another hour hand is blocked by manually operatable blocking unit
CN104597740A (en) * 2014-10-20 2015-05-06 陈洪寅 Time-space dial
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RU2681297C1 (en) * 2018-03-01 2019-03-05 Константин Юрьевич Чайкин Time device with multi-functional mechanism of indication of earth and mars opposition cycles
CN108445729A (en) * 2018-05-04 2018-08-24 深圳市飞亚达精密计时制造有限公司 A kind of graduation indication system, method and wrist-watch
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Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4435795A (en) * 1981-04-07 1984-03-06 A.I.M. Services Celestial clock
CN2256110Y (en) * 1995-10-25 1997-06-11 汪仁虎 Timer
JPH10221469A (en) * 1997-02-03 1998-08-21 Citizen Watch Co Ltd Planet indicating time piece

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US4435795A (en) * 1981-04-07 1984-03-06 A.I.M. Services Celestial clock
CN2256110Y (en) * 1995-10-25 1997-06-11 汪仁虎 Timer
JPH10221469A (en) * 1997-02-03 1998-08-21 Citizen Watch Co Ltd Planet indicating time piece

Cited By (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN106909055A (en) * 2015-12-23 2017-06-30 天津海鸥表业集团有限公司 Watch with lunar calendar indicating mechanism
CN106909054A (en) * 2015-12-23 2017-06-30 天津海鸥表业集团有限公司 Lunar calendar leap month actuating mechanism of clock
FR3070509A1 (en) * 2017-08-31 2019-03-01 Marc Sauzay ELECTRONIC WATCHING EQUIPMENT INDICATING THE TIME AND AZIMUT OF THE SUN BY MEANS OF A SINGLE NEEDLE INDICATOR
WO2019043307A1 (en) * 2017-08-31 2019-03-07 Sauzay Marc Electronic timepiece device indicating the time and the azimuth of the sun by means of a single indicator hand
US11567452B2 (en) 2017-08-31 2023-01-31 Marc Sauzay Electronic timepiece device indicating the time and the azimuth of the sun by means of a single indicator hand
EP3454140A1 (en) * 2017-09-08 2019-03-13 ETA SA Manufacture Horlogère Suisse Astronomical clock device
US11119445B2 (en) 2017-09-08 2021-09-14 Eta Sa Manufacture Horlogere Suisse Astronomical horological device

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