36 results about "Lunar phase" patented technology

A global time reckoning system simultaneously indicates local time and global time. The global time reckoning system can be practiced with standard clock timer drivers, including electromechanical and digital clock motors, in combination with a novel global time system clock face to allow a user to reckon time locally or anywhere on the globe without time zone conversion calculations. The global time system clock face has multiple time scales, at least one of which is driven by the clock drive in cooperation with an hour indicator (e.g., an hour hand). The global time system clock face simultaneously displays global time (relative to any location on the globe) and local time. Additionally, the global time reckoning system, with the appropriate clock timer driver is adaptable to indicate a number of other global time related information, including sunrise / sunset, days of the week, lunar phase and solstices / equinoxes.

A wearable device comprising a display arrangement for displaying moon phases. The image of the one or more moons is provided in the dial and a rotating member is provided above the dial to provide images of a full, waning, new and waxing moon. The device provides for both bi-directional and uni-directional rotation of the rotating member. The device can simultaneously or selectively display moon phases consistent with views from the northern hemisphere and / or southern hemisphere.

A lunar phase display mechanism includes an upper disc which is the lunar display disc and a lower disc mounted concentrically to this disc. One of the discs is mounted so that during normal operation of the mechanism that one disc rotates relative to the other disc, and the other disc is mounted in a stationary position during normal operation of the mechanism while this position can be changed by a rotary motion. The gear train driving the rotating disc allows that the direction of rotation of this disc can be reversed so that the different appearance of the lunar phases at the latitudes of the earth and, in particular, in the northern and southern hemisphere can be taken into account in the display.

The invention relates to a novel lunar phase formation exploration instrument. The novel lunar phase formation exploration instrument comprises a dark box and a flat plate for simulating the revolution plane of the earth and the revolution plane of the moon, wherein a driving device for driving the flat plate to rotate is arranged at the bottom of the dark box, a terrestrial globe device for simulating the earth is arranged in the middle of the flat plate and comprises a camera capable of being connected to a computer, a selenographic globe device which is aligned with the camera and used for simulating the moon is arranged on the flat plate, and a light-emitting device for simulating the sun is arranged on the inner wall of the dark box so that light can irradiate the camera and the selenographic globe device. The novel lunar phase formation exploration instrument further comprises a cover, wherein the top of the dark box can be covered with the cover. The novel lunar phase formation exploration instrument makes teaching visualized and makes phenomenon simulation scientific, vivid and interesting.

The invention provides a teaching demonstration instrument for indicating lunar phase changes. The instrument comprises a ball portion 1, a support portion 2 and a background portion 3. When a crank is rotated, we can see changes of simulated lunar phases from the front.

The invention discloses a lunar phase teaching model. The lunar phase teaching model comprises a sphere simulating the globe, a sphere simulating the moon, and a sphere simulating the sun and being capable of emitting lights, wherein the sphere simulating the globe can be hooded on a head of an observer, and is provided with an observation hole to enable the observer to see scene outside; or the observer can be attached to the surface of the model, and can rotate along with the rotation of the globe model; the sphere simulating the moon is non-transparent and is capable of moving around the globe model; and the light-emitting sphere simulating the sun stands still relatively, and includes a power source for controlling the sphere to emit lights, a switch, a light-emitting element and the like. The size and the distance of the three spheres are relatively consistent with the known size and distance proportion; and the movement speeds of the three spheres are relatively consistent with the known movement speed proportion of the globe and the moon. As the size, the distance and the movement speed proportion of the globe, the moon and the sun are consistent, a movement relationship of the globe, the moon and the sun can be demonstrated, the observer can be put in the scene to intuitively observe the lunar phase change process and the position relationship among the three spheres so as to understand the lunar phase change process and the causes of formation of various lunar phases.

The invention relates to a lunar center vector and sun direction extraction method based on a lunar imaging sensor, and the method employs the invariance feature of an included angle between a lunar edge contour direction and a lunar center vector direction, and the invariance feature of an included angle between a lunar phase contour point direction and a sun vector direction. The vector directions of the lunar center vector and the sun vector in the coordinate system of the lunar sensor are respectively calculated by combining with a least square method, and finally the vector directions are corrected through the theoretical calculation value of the included angle between the sun vector and the lunar vector, so that the high-precision lunar center vector and the sun direction are obtained at the same time. Compared with the prior art, the method is simple, high in precision, wide in application range and suitable for various conditions that the moon, the sun and observers are in different relative directions and relative positions, and the influence of moon phase contour fuzzification on the precision is reduced.

Provided is the moon phase display mechanism to reflect the moon phase difference in vision between the northern and the southern hemisphere of the earth. This invention relates to the moon phase display mechanism that displays the moon phase.The moon phase mechanism consists of two discs ; the top disc (1) called moon dial and the bottom disc (2) called moon display part which are attached concentrically and rotatably each other. The moon dial (1) has two apertures (1a and 1b) so as to reflect the moon phase difference in vision between the northern and the southern hemisphere of the earth.

The invention discloses an oversampling correction method and system based on moon phase graphical functional fitting, and the method comprises the following steps: extracting the pixel length of a pre-obtained moon image in a satellite scanning direction and a satellite movement direction based on contrast or edge recognition; calculating satellite parameters and moon parameters according to theephemeris, wherein the satellite parameters and the moon parameters are respectively the scanning speed of the remote sensor along the satellite motion direction and the relative position of the moon-satellite-sun; calculating a lunar phase angle and an orbit angle based on the extracted pixel length, and constructing a theoretical lunar phase graph function for obtaining a satellite view angle; through function fitting, determining a conversion coefficient of a pre-acquired moon image and a theoretical moon phase graph function, and acquiring an oversampling coefficient; and correcting moon shape stretching caused by time sequence recombination of the moon image observed by the satellite based on the oversampling coefficient to realize oversampling correction. According to the invention,the influence of oversampling on moon radiation correction can be accurately eliminated.

A display mechanism for n moonphases for a timepiece, where n≥3, includes a first wheel and pinion having a night-time background and a portion of lunar background and a second wheel and pinion superposed on the first, the second having a night-time background and moonphase profiles, with the first and second pivoting about one axis. The first wheel and pinion is driven at a constant velocity, and that the second can be driven in rotation at the same velocity and direction as the first during a moonphase display period during which a portion of lunar background of the first and a moonphase profile of the second corresponding to the moonphase to be displayed are superposed, revealing the moonphase. The second wheel and pinion is offset from the first by a repositioning angle during a transitional period between the current and following display periods, revealing the following moonphase.

A universal moon phase display device for a watch including a device that calculates or receives the date, that receives a geolocation signal, that calculates or receives a lunar calendar with the correlation between the date of the moon phase, that converts the day's moon phase into a first angular position of a first display member included in this device and which includes a representation of the normal moon, and that further determines the northern or southern hemisphere in which this device is located and controls the direction of rotation of first drive device included in this device in order to drive the first display member in opposite directions in the northern hemisphere and in the southern hemisphere.

The invention relates to a lunar phase teaching instrument in the field of a teaching instrument. A support plate is connected above a rotating assembly; the support plate is arranged in a way of being vertical to the rotating assembly; the support plate is arranged in a way of being parallel to a base; the support plate is arranged in a circular disc shape; a driving assembly is arranged in the center of the support plate; the driving assembly is directly connected with a driving connecting rod; the driving connecting rod is arranged on the support plate through rolling wheels; the driving connecting rod is arranged in a way of being parallel to the support plate; head end of the driving connecting rod is arranged in a way of being matched with the driving assembly; the tail end of the driving connecting rod is provided with a fixing seat; a moon model assembly is arranged on the fixing seat; and a camera assembly is arranged at one side of the support plate in a way of correspondingto a moon model, and is directly connected with a display. The periodic continuous change of the lunar phase can be directly shown through video projection; meanwhile, a teaching instruction which isstable and reliable in use is provided; the long-time repeated operation by students is convenient; clear impression is left for students; and the teaching efficiency is improved.

A lunar phase display device including an annular cover including four ring portions, two successive ring portions being separated by a convex lobe projecting radially towards the inside of the annular cover; a moon indicator disc, a drive device arranged to move the moon indicator disc so that the disc makes a cycloidal trajectory between two successive lobes, the moon indicator disc being at least partially occulted by each of the two lobes during one portion of the cycloidal trajectory so as to reproduce the phases of the moon during a lunar month.

The invention discloses a starmoon ceiling-mounted lamp. The lamp comprises a translucent lampshade, a lighting panel, a wireless LED lamp, a controller, a ballast and a remote control unit. The lighting panel is arranged at the center of the translucent lampshade, divided into four valvular partitions and provided with the controller and the ballast. Light emitting of the four valvular partitions is arranged corresponding to the waning moon, the quarter moon, the gibbous moon and the full moon of the phase of the moon. Each partition comprises a light source, a dodging plate and a reflecting surface. The wireless LED lamp is arranged around the lighting lamp. A wireless receiver is arranged at the control end of the controller. The control end of the ballast is connected with the controller, and the output end of the ballast is connected with the four valvular partitions. A control key of the remote control unit comprises a switch control key and a brightness adjusting key of the four valvular partitions and a switch control key of the wireless LED lamp. By the adoption of the mode, different moon shape lighting and starlight decoration lighting combinations are arranged according to requirements, and the starmoon ceiling-mounted lamp is attractive and practical.

The invention discloses a dial plate with an instant lunar phase image figure. A dial plate surface expresses an equatorial plane; and the central point of the dial plate surface expresses the location of the earth. And the location of the moon is expresses as follows: the projection of the moon on the equatorial plane is displayed on the dial plate surface at a selected distance relative to the central point in a roundness manner. The moon moves clockwise as time goes by. The lunar phase of the moon can be determined according to dates and the moon is displayed at the dial plate in a lunar phase state. Preferably, a sun mark (2) indicating the sun is arranged above the central point of the dial plate and is filled with a red color or gold color; and the central point is displayed in a blur circle mode and expresses the earth. According to the dial plate, the relative position relationship of the sun, the moon, and the earth is displayed at the small dial plate vividly; and on the basis of the displayed lunar phase figure and the position relationship of the sun, the moon, and the earth, the arrival and size of the tide can be determined accurately. Therefore, the dial plate not only can be applied to offshore catching, culturing, scientific research and military fields but also can be used for determining arrival of traditional festivals.

The invention relates to an equatorial telescope synchronization method, aims to solve the technical problems of large manpower consumption and large precision error caused by the fact that an equatorial telescope synchronization correction method in the conventional astronomical observation field adopts a manual observation and adjustment method, and provides a foundation moon-to-moon observationequatorial telescope synchronization method. The method employs a finderscope to recognize the geometry center of the moon through image processing; the equatorial telescope can be synchronized without strictly aligning a slit type spectrograph with the optical axis of the finderscope, and a minimum circumscribed circle algorithm adopted for identifying the geometry center of the moon is not influenced by the lunar phase, and the center of the lunar sphere can be accurately identified without judging the lunar phase; the equatorial telescope is synchronized through the geometry center of themoon, additional star map data is not needed, and the synchronization method is accurate, simpler and more convenient.

Timepiece mechanism for displaying the lunar day and the moon phase. The moon is represented by a sphere mounted on a meridian wheel and includes a first rotating element meshed with a drive mechanism, a second rotating element friction mounted on the first rotating element, a moon wheel set coupling the first rotating element to the meridian wheel, a transmission wheel with a jumper spring, a system for correcting the lunar day display via a first correction wheel bypassing the transmission wheel and including the meridian wheel, a system for correcting the lunar day display via a second correction wheel including the transmission wheel.

The invention provides a lunar instrument for simulating the lunar balance and the moon phase change, comprising: a base; a bow-shaped support fixedly arranged on the upper surface of the base; a lunar instrument shell with a spherical cavity inside, and the lunar instrument shell is fixedly connected with the arc-shaped support The shading plate is built in the spherical cavity of the lunar instrument shell, and the plane of the shading plate is fixedly connected with a coaxial device; the Z-shaped transmission shaft is connected to the outer shaft at one end, and the other end is connected to the first drive motor through the reduction gearbox Transmission connection, the first driving motor is placed in the base; the second driving motor is placed in the spherical cavity of the lunar instrument shell, and is connected to the inner shaft by transmission; the simulated light source is fixed on the plane of the visor and placed on the base The electrical connection to the power supply inside. It can realize more accurate calculation of the display range of the moon phase on the real three-dimensional spherical surface, more intuitive and realistic display of the moon phase effect on the three-dimensional lunar instrument, and better serve the application and research of lunar science.

The invention discloses an agile remote sensing satellite on-orbit autonomous focusing method based on lunar imaging, and the method comprises the following steps: enabling the satellite to carry out attitude maneuver when the lunar phase is a full moon or a convex moon, enabling the satellite to be converted from earth pointing to lunar pointing, enabling the satellite to reach a stable state, and entering a lunar focusing mode; when the agile remote sensing satellite is in the earth shadow area, controlling the load focusing mechanism to adjust the focal plane position, and obtaining lunar images corresponding to the n focal plane positions; the satellite carries out attitude maneuver, and lunar pointing is converted into earth pointing; and the on-satellite data processing subsystem performs on-orbit calculation on the definition of all moon images, and determines the position with the maximum definition value as the optimal focal plane position. The moon images at different focal plane positions are obtained through attitude maneuver, the definition is calculated, the optimal focal plane position is judged, and the problem that an existing on-orbit focusing method depends on human intervention is solved.

The invention provides a radiometric calibration method and system for a lunar remote sensor. The method comprises the steps: simulating a stationary synchronous orbit satellite, and obtaining J2000 space coordinates of the satellite and the lunar relative to the earth during the in-orbit period at a preset moment; according to J2000 space coordinates and the like, calculating a time point when a complete moon appears in the earth full-disc image; acquiring a corresponding earth full-disk image; restoring the normal proportion of the earth full-disk image; extracting a moon image through a connected domain of the infrared image and the visible light image; eliminating an earth-like image and a moon image which is seriously influenced by stray light from the moon image; according to the moon image after elimination, acquiring moon disc integral irradiance by using A / D conversion; obtaining a distance correction coefficient and a moon phase correction coefficient; and obtaining a relative radiation sequence of the synchronous orbit satellite according to the lunar disc integral irradiance, the distance correction coefficient and the lunar phase correction coefficient. A remote sensing instrument is analyzed through data of a time sequence, so that the attenuation condition of the remote sensing instrument is monitored for a long time.

The invention provides a method for extracting the sun vector direction based on the moon phase. In the coordinate system of the lunar sensitive period, the invariance of the angle between the moon edge direction and the sun vector direction is used, and the least squares method and the moon phase information are combined. Calculate the sun vector direction and use the sun vector direction for satellite navigation, which has a wide range of applications.

The invention relates to the communication field, in particular to a system and method for calculating the lunar calendar by using moon phases, and communication equipment. The present invention includes a camera module, used to obtain the current moon phase; a storage module, pre-stored with a number of standard moon phases and the lunar calendar date corresponding to each standard moon phase; an analysis module, respectively communicating with the camera module and the storage module The connection is used to compare the moon phase of the current moon with each standard moon phase one by one, so as to obtain the standard moon phase closest to the moon phase of the current moon; the calling module is connected with the storage module and the analysis module respectively to obtain Retrieve the lunar date corresponding to the nearest standard moon according to the nearest standard moon phase.

The invention discloses a solar eclipse and lunar phase teaching demonstrator, which comprises a box body, an LED spherical lamp and a blocking ball, wherein a track is arranged on a bottom plate in the box body, and the blocking ball can slide in the track; the LED spherical lamp is fixedly arranged on the bottom plate of the box body, and the track in the box body is divided into a straight track and a circular arc track. The solar eclipse and lunar phase teaching demonstrator provided by the invention has a simple structure and can clearly demonstrate astronomical phenomena such as solar eclipses and lunar phases, and the demonstration process is closer to the real solar eclipses phenomenon process, so that an observer can quickly understand the generation principle of solar eclipses. The solar eclipse and lunar phase demonstrator provided by the invention can also intuitively show the astronomical phenomena such as total solar eclipse and annular solar eclipse caused by the difference in the distance between the moon and the earth.

The indication mechanism has at least one first occultation disk (2.1) housed rotatably, at least on part, between a moon disk (1) and a dial. A gear train (4) drives the first occultation disk in such a way that the indications (1.1,1.2) inscribed on the moon disk are obscured, at least in part, during specific phases of operation of the indication mechanism in such a manner that the indications appearing through the semi-circular aperture of the dial correspond to the natural appearance of the moon during the entire lunation. The moon disk is rotated to display the indications inscribed on the moon disk through the aperture of the dial to indicate the lunar phases. The first occultation disk is configured depending on its position in the indication mechanism or the shape of the aperture of the dial, so as to be provided with arms and apertures of specific shape. The first occultation disk is arranged non-concentrically relative to the moon disk. The first occultation disk and a second occultation disk (2.2) are housed on either side of the moon disk.

The invention provides a teaching demonstration instrument for indicating lunar phase changes. The instrument comprises a ball portion 1, a support portion 2 and a background portion 3. When a crank is rotated, we can see changes of simulated lunar phases from the front.

Device for displaying phases of the moon with a fist display member (80) bearing a plurality of first images (81-86) at least partially representing the moon, a display zone, driving means (22, 23 ,25, 40. 41, 43, 63, 71, 72, 61, 62) arranged to displace, by successive jumps, the first display member (80) relative to the display zone, to display a succession of representations of the moon. An original feature of the invention is that the periods of display of the first images are not all equal.

The patent of the invention relates to a teaching instrument, in particular to a novel lunar origin demonstrator which solves the problem of no visual and visual teaching aids demonstration moon phasecauses and the original projector waste resources re-use; the instrument comprises a box body, a control switch arranged on the box body, a power socket, a heat dissipation fan arranged inside the box body, a reflecting bowl, a 300W bromine-tungsten lamp and a transformer; the original projector screw condenser can obtain parallel light by lowering the height of the condenser; heat insulation with thick glass liner under it; a movable plane mirror is arranged above the movable bracket, and the movable bracket is used for fixing the movable bracket, so that the strong light is reflected to theearth-moon model; a folding cover plate is hinged on the right side of the box body; a ground-moon model turntable is arranged on the cover plate, and is driven by a small decelerating motor on the back; and a convex lens and a small plane mirror are arranged in the space of the earth model, so that the moon phase can be imaged on the round ground glass; a video head is arranged above the groundglass, and the computer multimedia is connected with the data line, and the lifting knob is adjusted, so that the panorama of the earth-moon model or the close-up of the moon phase can be projected onthe screen.

The invention relates to the field of astronomical teaching devices, and discloses a moon phase observer. The moon phase observer comprises a globe and a moon model revolving around the globe; the moon model comprises a first sphere and a second sphere; the interior of the first sphere is a cavity, and a side wall of the first sphere is a transparent material; the second sphere is disposed in a cavity inside the first sphere; a magnet is embedded in the second sphere; outer surfaces of left and right hemispheres of the second sphere have two color layers; and the moon model can horizontally rotate within the cavity. The invention utilizes black and white plastic balls to represent the moon. During the revolution, the internal magnet is rotated under the action of the earth's magnetic field, so that the day and night hemispheres of the moon always maintain in the east-west direction, which can simulate the revolution of the moon realistically; the revolution of the moon is observed, thechange process of the moon phase can visually and visually saw; the moon phase diagram can be drawn on the moon phase plate to facilitate the students to understand and master the law of the moon phase change; and the second sphere and the first sphere have multiple cooperation modes.

A cause demonstrating instrument for a lunar phase, a solar eclipse and a lunar eclipse is composed of an ecliptic circular annular face, an ecliptic, a lunar orbit face, a lunar orbit, a fixed star, a sun, an earth, a moon and a wireless camera. An earth and moon opposite rotation vortex center theory of celestial body revolution of the sun, the earth and the moon is provided and according to the theory, a demonstrating model is designed and used for explaining forming reasons and change rules of the lunar phase, the solar eclipse and the lunar eclipse. The cause demonstrating instrument for the lunar phase, the solar eclipse and the lunar eclipse has the advantages that the earth and moon opposite rotation vortex center theory of celestial body revolution of the sun, the earth and the moon is provided; the phenomenon that the moon tours the heaven for a circle with the center of a vortex serving as the center of a circle every sidereal month can be demonstrated, wherein each sidereal month includes 27.321661 days; the phenomenon that every synodic month includes 29.53059 days can be demonstrated and explained, after one synodic month, the phenomenon that the sun and the moon are located in the same longitude on a celestial sphere happens exactly, and the continuous change of the lunar phase is demonstrated repeatedly; the phenomenon that meridian transit moments of the moon on different days are different can be demonstrated and explained and the phenomenon refers to the condition that the moon rises 49 minutes later at one night than the last night; the forming reasons of the solar eclipse and the lunar eclipse can be demonstrated and explained.