TWI418846B - Virtual tourist telescope - Google Patents

Description

Virtual viewing telescope

The present invention relates to a virtual viewing telescope, and more particularly to a structure that can simulate a real landscape.

According to the telescope, it is a tool used to look into the distance. The types of telescopes are numerous and numerous. Many important landmarks frequented by tourists, such as high-rise buildings and scenic spots, are mostly equipped with viewing telescopes. It is also used with a coin-operated machine for sightseeing by the tourists. However, the conventional viewing telescope is limited by the local environment, such as fog, air pollution, rain or backlighting. The poor viewing effect has made tourists from thousands of miles of marshes fall back, thus reducing tourism interest. In addition, if visitors are not locals, they cannot clearly know the history of the place. They must also hire a tour guide to explain, for tourists, It is also a small expense.

In view of the above shortcomings, the inventors have intensively conceived the research and development creation, and after a long period of effort, the present invention has been produced.

The main purpose of the present invention is to provide a virtual viewing telescope that can simulate a real landscape.

In order to achieve the above object, the present invention designs a virtual viewing telescope having a hollow telescope body is provided with a display panel in the telescope body, the display panel is electrically connected to an audio-visual data processing unit, and the audio-visual data processing unit is internally provided with a landscape audio and video database, wherein the telescope body can be combined with a A tripod with a combination of sensors that detect viewing horizontal orientation and pitch angle is used. When viewing the landscape with the telescope, the display panel will display the scene viewed by the telescope based on the level and rotation angle detected by the horizontal orientation and pitch angle sensors.

1‧‧‧ Tripod

10‧‧‧ Carrying the gimbal

11‧‧‧ horizontal rotation sensor

12‧‧‧ platform

13‧‧‧Vertical Rotary Adjuster

14‧‧‧Elevation rotation sensor

15‧‧‧Horizontal Rotary Adjuster

16‧‧‧Sensing data processing unit

20‧‧‧ telescope body

21‧‧‧ eyepiece

22‧‧‧First Mitsubishi

23‧‧‧Second Mitsubishi

24‧‧‧ Objective

25‧‧‧ display panel

260‧‧‧Zoom detector

26‧‧‧Zoom adjuster

27‧‧‧Play/Stop button

30‧‧‧Video and audio data processor

31‧‧‧Central Data Processor

32‧‧‧Video and audio data storage device

320‧‧‧Landscape Audio Database

33‧‧‧Image data processor

34‧‧‧ display controller

35‧‧‧Audio data processor

36‧‧‧ Horn

The first figure shows a structural combination diagram of an embodiment of the present invention.

The second figure shows a top view of the telescope body of the embodiment of the present invention.

The third figure shows a block diagram of an embodiment of the present invention.

The present invention has been described in detail with reference to the accompanying drawings in which: FIG.

Referring to the first to third figures, the present invention comprises: a bearing platform 10, which is disposed on the top of a tripod 1 and has a horizontal rotation sensor 11 in the bearing platform 10, and the horizontal rotation sensor 11 is used. The horizontal rotation angle of the bearing platform 10 is measured. A platform 12 is disposed above the bearing platform 10, and the vertical tilting of the platform 12 is adjusted by a vertical rotation adjuster 13. The platform 12 is provided with an elevation rotation sensor 14 for measuring the vertical inclination angle of the platform 12, and carrying the gimbal 10 is provided with a horizontal rotation adjuster 15 for adjusting the horizontal orientation of the bearing platform 10, and the horizontal rotation sensor 11 and the elevation rotation sensor 14 are electrically connected to a sensor data processing unit 16, respectively; Telescope body 20 (this invention uses binoculars as an example, For the monocular), an eyepiece 21 is respectively disposed on both sides of the inner side, and a pair of corresponding first and second triangular mirrors 22 and 23 are disposed in the telescope body 20 relative to the user's eye (if used) In the case of a monocular, the first and second Mitsubishi mirrors 22 and 23 may not be used. The first Mitsubishi mirror 22 corresponds to the eyepiece 21, and an objective lens 24 is disposed on the other side of the telescope body 20, corresponding to the The second triangular mirror 23 is provided with a display panel 25 (for example, Liquid Crystal Display, referred to as LCD) on the side of the objective lens 24, and a zoom adjuster 26 of the zoom detector 260 is disposed outside the telescope body 20, corresponding to Between the two eyepieces 21, for simulating the magnification zoom, the display image of the display panel 25 is enlarged or reduced, and a play/stop button 27 is disposed on the side of the telescope body 20; a video and audio data processing unit 30, one side and the play The / stop button 27 is electrically connected, and the other side is electrically connected to the sensing data processing unit 16, wherein the video data processing unit 30 has a central data processor 31 built therein, and the side is coupled with the zoom detector. 260 for electrical connection, central capital The other side of the processor 31 is electrically connected to a side of the video data storage device 32. The telescope body 20 can be provided with a zoom adjuster 26, and the zoom adjuster 26 is electrically connected to the central data processor 31. The zoom detector 260 is configured to scale up or down the image of the display panel 25 according to the rotational position of the zoom adjuster 26, and the zoom detector 260 can be an electronic, electromagnetic or optical angle sensor. The data storage device 32 has a landscape video library 320. The other side of the video data storage device 32 is electrically connected to one side of the image data processor 33. The other side of the image data processing unit 33 is electrically connected to a display controller 34. The display device 34 is electrically connected to the display panel 25. The image displayed on the display panel 25 can be a two-dimensional image or a three-dimensional image. The audio-visual data storage device 32 is coupled to an audio data processor 35. Electrical connection; central data processor 3 1 is a computing core of the present invention, and includes a program for receiving and calculating each sensing data and access to the landscape video library 320. The central data processor 31, the image data processor 33, and the audio data processor 35 are Formed by a microprocessor or a hardware circuit, the landscape video library 320 is stored in a memory, a disk drive or a CD player, and can store a plurality of languages for the user to select and play; Referring to the first to third figures, in use, the user places the telescope body 20 on the carrying platform 10 of the tripod 1, and adjusts the horizontal rotation adjuster 15, the elevation position and the telescope of the tripod 1 according to the user's needs. The zoom adjuster 26 of the body 20, the horizontal rotation sensor 11, the elevation rotation sensor 14 and the zoom detector 260 respectively detect the position and angle of the adjustment, and transmit the angle and position data to the sensing data processing unit. The sensing data processing unit 16 then transmits the signal to the video data processing unit 30. The central data processor 31 then selects the image data from the landscape video library 320 according to the angle and position data, and transmits the selected image data to the image data processing. The image data processor 33 transmits the signal to the display panel 25 via the display controller 34 to cause the display panel 25 to display the image. At the same time, the central data processor 31 selects the audio data from the landscape audio and video library 320 and processes the data through the audio data. The device 35 transmits a signal to a speaker 36 or a headphone, so that the speaker or the earphone emits music or sound, etc., and is displayed on the display panel 25 The image can be enlarged or reduced by the zoom adjuster 26 of the body 20; the image will be updated instantly with the user's operation, and the landscape video library 320 can provide the explanation of the scene, the function of the audio guide, and the voice commentary. The user can automatically start according to the time when the user watches the target stay (for example, two seconds), and automatically stops when transferring other objects, and the user can also control the voice play by the play/stop button 27.

As can be seen from the above description, this creation has at least the following advantages and effects. .

1. With the voice commentary function, the built-in landscape video library 320 can explain the scene viewed by the user.

2. Built-in language in all countries, so that people from all countries can use it.

In conclusion, the present invention can achieve the intended functions and purposes, and the detailed description can be implemented by those skilled in the art. However, the above embodiments are merely illustrative of the present invention, and all changes are still not It is within the scope of the rights of the invention.

1‧‧‧ Tripod

10‧‧‧ Carrying the gimbal

11‧‧‧ horizontal rotation sensor

12‧‧‧ platform

13‧‧‧Vertical Rotary Adjuster

14‧‧‧Elevation rotation sensor

15‧‧‧Horizontal Rotary Adjuster

16‧‧‧Sensing data processing unit

20‧‧‧ telescope body

21‧‧‧ eyepiece

25‧‧‧ display panel

Claims (6)

A virtual telescope has a hollow telescope body, and a display panel is disposed in the telescope body, the display panel is electrically connected to an audio-visual data processing unit, and the audio-visual data processing unit has a landscape audio and video database built therein. The feature is that part of the displayed image is determined by the angle of rotation provided by a horizontal and an elevation rotation sensor. The virtual viewing telescope according to claim 1, wherein the telescope body can be used with a tripod combined with a horizontal rotation sensor and an elevation rotation sensor, and the two sensors are respectively used. An electrical connection is made to a sensing data processing unit, and the sensing data processing unit is further electrically connected to the audiovisual data processing unit. The virtual viewing telescope of claim 1, wherein the telescope body is provided with a zoom adjuster, and the zoom adjuster is provided with a zoom detector electrically connected to the central data processor, according to The zoom position of the zoom adjuster causes the image of the display panel to be scaled up or down. The zoom detector can be an electronic, electromagnetic or optical angle sensor. The virtual viewing telescope according to claim 1, wherein the landscape audio and video library is stored in a memory, a magnetic disk drive or a CD player, and can store a plurality of languages for the user to select the player. The virtual viewing telescope according to claim 1, wherein the image displayed on the display panel is a two-dimensional plane image or a three-dimensional image. The virtual viewing telescope according to claim 1, wherein the telescope body can be a single cylinder or a double cylinder structure.