Abstract: Thermal transfer printing method and apparatus are provided to make initial character image data left on a spent ink ribbon illegible. In the method, after forming an initial character image on an ink layer in black of the ink ribbon, a forefront of the ink layer is aligned with a forefront position of an intermediate transfer film. Then, overwrite character image data is applied on a thermal head to produce a first superimpose character image on the ribbon and a first superimpose character image on the film. After that, the forefront position of the ink layer is shifted from the forefront position of the film by a predetermined distance and the overwrite character image data is applied on the thermal head to produce a second superimpose character image on the ribbon and a second superimpose character image on the film.

Abstract: Thermal transfer printing method and apparatus are provided to make initial character image data left on a spent ink ribbon illegible. In the method, after forming an initial character image on an ink layer in black of the ink ribbon, a forefront of the ink layer is aligned with a forefront position of an intermediate transfer film. Then, overwrite character image data is applied on a thermal head to produce a first superimpose character image on the ribbon and a first superimpose character image on the film. After that, the forefront position of the ink layer is shifted from the forefront position of the film by a predetermined distance and the overwrite character image data is applied on the thermal head to produce a second superimpose character image on the ribbon and a second superimpose character image on the film.

Abstract: Thermal transfer printing method and apparatus are provided to make initial character image data left on a spent ink ribbon illegible. In the method, after forming an initial character image FGi1 on an ink layer 11b in black of the ink ribbon 11, a forefront position S1 of the ink layer 11b is aligned with a forefront position S2 of an intermediate transfer film 25. Then, overwrite character image data UGD1 is applied on a thermal head 19 to produce a first superimpose character image KG1i1 on the ribbon 11 and a first superimpose character image KG1m1 on the film 25. After that, the forefront position S1 of the ink layer 11b is shifted from the forefront position S2 of the film 25 by a predetermined distance and further, the overwrite character image data UGD1 is applied on the thermal head 19 to produce a second superimpose character image KG2i1 on the ribbon 11 and a second superimpose character image KG2m1 on the film 25.

Abstract: A printing apparatus for printing an image on a printing object on the basis of input data is composed of a printing mechanism for compressing an ink ribbon against a printing object and forming an image in accordance with input data on the printing object, a controlling section for controlling the printing mechanism so as to form a rotated image by 180 degrees for second printing conducted in succession to first printing for printing a not rotated image, and a driving mechanism for rewinding the ink ribbon extended between supply and take-up rolls to the supply roll during the first printing and second printing.

Abstract: A re-transfer printing machine 60 uses an ink film 33 having a sublimation-ink area of sublimation inks Y, M, C and an invisible-ink area of an invisible ink UVS and an intermediate-transfer film 11 having a protecting layer 11c and an ink receptor layer 11d enabling the sublimation inks and the invisible ink to be received. The machine includes an overlap detecting part 76-5 for detecting whether a print image contains an overlapping between a sublimation-ink image 18 and an invisible-ink image 20 and a controller 6 for controlling a transfer operation corresponding to detection by the overlap detecting part. If the overlap detecting part detects that the print image contains the overlapping, the controller allows the machine to transfer the sublimation-ink and invisible-ink images to different areas in the receptor layer. If not, the controller allows the machine to transfer the sublimation-ink and invisible-ink images to an identical area 212 in the receptor layer.

Abstract: A pair of bonding electrodes of each of light-emitting semiconductor devices of RGB is disposed in a point symmetrical relationship, the devices are mounted on a common electrode of a package, and a bonding wire is suspended from a commonized bonding electrode of the respective devices to the common electrode. Bonding wires are suspended from the other bonding electrodes of the respective devices to first to third electrodes on the package which are independent from one another.

Abstract: An LED light comprising a light-emitting device provided to power supply means, encapsulating means for encapsulating the light-emitting device with a light-transmitting material, a reflective surface for reflecting the light emitted from the light-emitting device to a direction perpendicular to the center axis of the light-emitting device or at a large angle to the center axis, opposed to the light-emitting surface of the light-emitting device, a light-emitting diode having a side directing surface for directing sideways the light reflected from the reflective surface to a direction perpendicular to the center axis of the light-emitting device or at a large angle to the center axis, and a reflecting mirror disposed around the light-emitting diode.

Abstract: A re-transfer printing machine 60 uses an ink film 33 having a sublimation-ink area of sublimation inks Y, M, C and an invisible-ink area of an invisible ink UVS and an intermediate-transfer film 11 having a protecting layer 11c and an ink receptor layer 11d enabling the sublimation inks and the invisible ink to be received. The machine includes an overlap detecting part 76-5 for detecting whether a print image contains an overlapping between a sublimation-ink image 18 and an invisible-ink image 20 and a controller 6 for controlling a transfer operation corresponding to detection by the overlap detecting part. If the overlap detecting part detects that the print image contains the overlapping, the controller allows the machine to transfer the sublimation-ink and invisible-ink images to different areas in the receptor layer. If not, the controller allows the machine to transfer the sublimation-ink and invisible-ink images to an identical area 212 in the receptor layer.

Abstract: A card manufacturing method for manufacturing the card and a card manufacturing apparatus for manufacturing the card are provided. The card 51 includes a card base 1, a first receptor layer 1a arranged on one side of the card base 1 to contain a sublimation-ink image 8, a protecting layer OC1 laminated on the first receptor layer 1a and an invisible-ink image 10 formed on the protecting layer OC1. Owing to the interposition of the protecting layer OC1 between the sublimation-ink image 8 and the invisible-ink image 10, the card 51 is capable of suppressing color fading of a sublimation ink in the image 8 in spite of a card structure where the sublimation ink and an invisible ink are printed so as to overlap each other, allowing the card 51 to be used for a long time.

Abstract: A pair of bonding electrodes of each of light-emitting semiconductor devices of RGB is disposed in a point symmetrical relationship, the devices are mounted on a common electrode of a package, and a bonding wire is suspended from a commonized bonding electrode of the respective devices to the common electrode. Bonding wires are suspended from the other bonding electrodes of the respective devices to first to third electrodes on the package which are independent from one another.

Abstract: Thermal transfer printing method and apparatus are provided to make initial character image data left on a spent ink ribbon illegible. In the method, after forming an initial character image FGi1 on an ink layer 11b in black of the ink ribbon 11, a forefront position S1 of the ink layer 11b is aligned with a forefront position S2 of an intermediate transfer film 25. Then, overwrite character image data UGD1 is applied on a thermal head 19 to produce a first superimpose character image KG1i1 on the ribbon 11 and a first superimpose character image KG1m1 on the film 25. After that, the forefront position S1 of the ink layer 11b is shifted from the forefront position S2 of the film 25 by a predetermined distance and further, the overwrite character image data UGD1 is applied on the thermal head 19 to produce a second superimpose character image KG2i1 on the ribbon 11 and a second superimpose character image KG2m1 on the film 25.

Abstract: A card manufacturing method for manufacturing the card and a card manufacturing apparatus for manufacturing the card are provided. The card 51 includes a card base 1, a first receptor layer 1a arranged on one side of the card base 1 to contain a sublimation-ink image 8, a protecting layer OC1 laminated on the first receptor layer 1a and an invisible-ink image 10 formed on the protecting layer OC1. Owing to the interposition of the protecting layer OC1 between the sublimation-ink image 8 and the invisible-ink image 10, the card 51 is capable of suppressing color fading of a sublimation ink in the image 8 in spite of a card structure where the sublimation ink and an invisible ink are printed so as to overlap each other, allowing the card 51 to be used for a long time.

Abstract: A vehicle rearview mirror including a housing, a mirror, an LED that has a light emitting element and plane-radiates light in a direction nearly vertical to the optical axis of the light emitting element, and a light-guiding member in which at least the one LED is incorporated at a predetermined position. The light-guiding member has a light reflection surface that reflects light to be plane-radiated from the LED and that allows the reflected light to be radiated in a desired direction, and a light radiation surface that allows direct light to be directly emitted from the LED and the reflected light to be externally radiated by the light radiation surface.

Abstract: A light emitting device includes a mark body, a substrate arranged in back of the mark body, an LED mounted on an opposite surface of the substrate to the mark body, and a light guide arranged on a closer side of the substrate to the LED and having an upper surface serving as a light introducing surface for introducing LED-based light, a side surface serving as a light emitting surface and a backside subjected to a light diffuse reflection process to cause diffuse reflection by the backside. Incidentally, there can be provided a light emitting device that includes a light guide arranged on a closer side of the substrate to the LED and having an upper surface serving as a light introducing surface for introducing LED-based light, a side surface serving as a light emitting surface and a backside having a plurality of protrusions in a rib form.

Abstract: In an illumination device for license plate which illuminates the license plate from the front side thereof, at least one light source consist of a white LED is arranged at a position upward or obliquely upward of the license plate in such a manner that optical axes thereof traverse with a lower range than the center of the license plate, and a reflector is arranged at a position obliquely downward seen from an observer's side of the light source, receiving a light directing to the observer's side from a portion of a light emitted from the light source, and converting the light into a light irradiating the center or the lower part of the license plate. Further, a garnish for accommodating the light source and having a light transmitting part can be provided to the illumination device.

Abstract: In a process of peeling off a transfer layer of an intermediate transfer film, an amount of energy, which is supplied to a thermal head 3 so as to heat the thermal head 3, is changed in accordance with a location of the thermal head 3 in a peeling area 71P and its neighboring area. The amount of energy is designated to be maximum energy E1 when the thermal head 3 is positioned in the neighborhood of a boundary area of the peeling area 71P while the thermal head 3 relatively moves from outside the peeling area 71P, that is, a non-peeling area 71NP to inside the peeling area 71P. In a case that the thermal head 3 is positioned in the non-peeling area 71NP or outside the peeling area 71P, a certain amount of energy is supplied to the thermal head 3 so as to maintain a temperature T of the thermal head 3 at a temperature of less than a predetermined temperature PA while heating the thermal head 3.

Abstract: A laminating apparatus 100 is composed of a cooling section 120 for cooling a card 1, and a thermo compression bonding section LR for thermally compression bonding the card 1 cooled by the cooling section 120 and a laminate film 2 having a material for forming a protective film 2a so as to produce a laminated card by bonding the material for forming a protective film 2a on at least one surface 1 a of the card 1.

Abstract: A laminating apparatus 100 is composed of a laminating section LR for thermally compression bonding a laminate film 2 having a material for forming a protective film 2a on at least one surface 1a of a card 1 recorded with information and for bonding the protective film 2a on the one surface 1a of the card 1 while the card 1 is carried through the laminating section LR, a supplying section 101 for supplying the card 1 to the laminating section LR, carrying means R1 and R2 for carrying the card 1 supplied from the supplying section 101 so as to pass through the laminating section LR at a prescribed passing through speed, and a controlling section 304 for controlling the passing through speed in the laminating section LR, wherein the controlling section 304 controls the passing through speed such that a finishing moment speed V2f when the card 1 finishes to pass through the laminating section LR is slower than a starting moment speed V2s when the card 1 starts to pass through the laminating section LR, and where

Abstract: An LED light comprising a light-emitting device provided to power supply means, encapsulating means for encapsulating the light-emitting device with a light-transmitting material, a reflective surface for reflecting the light emitted from the light-emitting device to a direction perpendicular to the center axis of the light-emitting device or at a large angle to the center axis, opposed to the light-emitting surface of the light-emitting device, a light-emitting diode having a side directing surface for directing sideways the light reflected from the reflective surface to a direction perpendicular to the center axis of the light-emitting device or at a large angle to the center axis, and a reflecting mirror disposed around the light-emitting diode.

Abstract: An opposed reflecting mirror is provided so as to face a light source. The opposed reflecting mirror is configured to reflect light rays, emitted from the light source, so as to allow the reflected light rays to advance in a predetermined direction. A light guide body having a plurality of reflecting surfaces is provided to permit the incidence of light rays supplied from the opposed reflecting mirror and to reflect the incident light rays. The plurality of reflecting surfaces are located at different positions in a sliding split manner along the direction of light rays supplied from the opposed reflecting mirror. By virtue of this construction, a light emitting apparatus can be provided in which, while making the best use of a feature of LED, i.e., a small thickness, impressive illumination of an elongated shape by one light emitting device and high external emission efficiency can be realized.