TH46721A - A miniaturized device for information processing equipped with a projector. - Google Patents

Abstract

DC60 (23/11/43) A miniature device incorporating various data display features, including a data processing and display system, which includes devices for presenting text and visual information and is optimized to project images onto distant display surfaces. Also disclosed is the method for utilizing the miniature data processing device, which includes projectors for projecting information onto distant surfaces.

Claims (30)

1. An information processing system consisting of more than one set of devices for processing data, which are embedded or enclosed in a miniature enclosure, and which includes: - a miniature display unit for viewing data; - a projector module that allows data to be projected onto a distant screen; and - a control unit for processing data via the projector module and for controlling the quality of the displayed image on the screen. 2. A system under the claim of Claim 1 whereby an embedded data processing device is selected from a group comprising PDAs, watches, touch phones, web phones, smart phones, pagers, smart wallets, smart keys, wristwatches and mirrors connected to such embedded devices. 3. A system under the rights claimed in Claim 1 whereby a projector module is fitted with a laser device for projecting high-contrast images onto such screen. 4. A system under claim I whereby such control device causes differences in the quality of the image, color intensity, clarity and contrast of the image projected onto the screen. 5. A system as entitled under Claim 1, whereby the control device is equipped with sensors for detecting and measuring environmental conditions. 6. The system as provided for in Claim 5, whereby such environmental conditions are: exposure to light near the projector module, exposure to light near the screen, wind, rain, distance from the screen or creating a screen contact zone. 7. A system as entitled under claim 1, whereby the control device is equipped with a focusing system for focusing the images projected onto the screen. 8. A system under claim 5 whereby the control device is equipped with a subsystem for automatic adjustment of image quality, color intensity, and contrast based on data obtained from sensors that detect and measure environmental conditions. 9. The system, as per claim 7, ensures that the focus is automatically adjusted. 10. The system as per claim I, whereby a screen is selected from a group of standard screens for projectors, sheets of paper, floors, ceilings, walls, or any covering of any shape, such as square, circle, oval, or polygon. 11. A system under the rights claimed in Claim 1 whereby such control device is equipped with a subsystem that enables adjustment of the format of the display interface area, such as square, circle, oval or polygon. 12. A system pursuant to claim 11, whereby such subsystem is operated automatically using data obtained from sensors. 13. A system pursuant to claim Claim 5 where such sensor includes a camera or video camera. 14. A system pursuant to claim I, whereby a miniature display is used as the output pathway for the projector beam. 15. A system based on claim 1, where the output is a mirror image. 16. Processing Method - Displaying information consisting of: - Embedding more than one set of devices for data processing in a miniature box, which includes a miniature display for viewing the information; - A projection module that allows projecting information onto a distant screen; and - A control device for processing data via the projection module to control the quality of the displayed image on the screen. 17. The method as claimed in Claim 16, whereby the embedded data processing device is selected from a group of PDAs, watches, touch phones, web phones, smart phones, pagers, smart wallets, smart keys, wristwatches and mirrors connected to such embedded devices. 18. The method claimed under claim 16, whereby the projector module is fitted with a laser device for projecting high-contrast images onto such screen. 19. The method claimed under claim 16, whereby such control device causes differences in the quality of the image, color intensity, clarity and contrast of the image projected onto the screen. 20. The method claimed under claim 16, whereby the control device is equipped with sensors to detect and measure environmental conditions. 21. Methods as claimed under claim 20, where such environmental conditions are: exposure to the module which is the projector, exposure to the screen, wind, rain, distance from the screen, or the creation of a screen interface. 22. The method as claimed under claim 16, whereby the control device is fitted with a focusing system for focusing the images projected onto the screen. 23. The method claimed under claim 20, whereby the control device is equipped with a subsystem for the automatic adjustment of image quality, color intensity and contrast based on data obtained from sensors that detect and measure environmental conditions. 24. The method pursuant to claim 22, whereby the focus is automatically adjusted. 25. The method as claimed in Claim 16, whereby the screen shall be selected from a group of standard screens for projectors, sheets of paper, floors, ceilings, walls, or any covering of any shape, such as square, circle, oval, or polygon. 26. The method claimed under claim 16, whereby such control device is fitted with a subsystem that enables adjustment of the shape of the display interface area on the screen, such as square, circle, oval or polygon. 27. The method stipulated in claim 26, whereby the subsystem for such adjustment is operated automatically using data obtained from the sensors. 28. The method in accordance with claim 20 where such sensor is included with a camera or video camera. 29. The method as claimed in claim 16, whereby the miniature display is used as the output path for the projector beam. 30. The method pursuant to claim 16, where the result is a mirror image.