Abstract:
An image transfer method used to transfer a dye image on a printed sheet, which is outputted from, for example, a video printer, onto a transfer base, such as a ceramic cup. The transfer method comprises applying a resin to the surface of the base to form a receiving layer, drying the base thus treated in an electric furnace to form a substrate for transfer, laying a printed sheet having a sublimable dye image on the receiving layer of the substrate, and applying heat and pressure to the laminate formed. An acrylic resin, an epoxy resin, or both these resins are used as the resin for the receiving layer. For example, when a resin containing an acrylic resin as a main component is used, the conditions of the transfer include a viscosity of the resin of 43-52 sec in the Ford cup test, a pressure of the resin discharged from a painting gun of 35 kg/m +/- 0.01 kg/m , a distance between the painting gun and the base body of 100 mm +/- 5 mm, a drying temperature of 170-180 DEG C, and a thickness of the receiving layer of 10-50 mu m. After the sublimable dye image is transferred to the receiving layer, a transparent film is bonded as necessary as a protective film to the upper surface of the receiving layer.
Abstract:
An image transcription method of transcribing an image of the dye on a printing sheet outputted by e.g., a video printer onto a substrate for transcription, such as a cup of pottery or the like. For transcription, a resin is coated on the surface of the substrate for transcription to form a reception layer. This reception layer is dried in an electrical oven to form a support for transcription. A printing sheet carrying an image of a sublimable dye is stacked on the reception layer of the support for transcription and pressured to the reception layer under application of heat and pressure. As the resin for the reception layer, the acrylic resin or the epoxy resin or both are employed. If the resin composed mainly of the acrylic resin is employed, the viscosity of the resin is set to 43 to 52 seconds in terms of the Ford cup viscosity, and the resin discharge pressure from a spray gun is set to 35 kg/m +/- 0.01 kg.cm . The distance between the spray gun and the substrate for transcription is set to 100 mm +/- 5 mm, while the drying temperature is 170 to 180 DEG C. The thickness of the reception layer is 10 to 50 mu m. After transcribing the image of the sublimable dye to the reception layer, a transparent film is bonded, if necessary, as a protective film on the reception layer.
Abstract:
An image transcription method of transcribing an image of the dye on a printing sheet outputted by e.g., a video printer onto a substrate for transcription, such as a cup of pottery or the like. For transcription, a resin is coated on the surface of the substrate for transcription to form a reception layer. This reception layer is dried in an electrical oven to form a support for transcription. A printing sheet carrying an image of a sublimable dye is stacked on the reception layer of the support for transcription and pressured to the reception layer under application of heat and pressure. As the resin for the reception layer, the acrylic resin or the epoxy resin or both are employed. If the resin composed mainly of the acrylic resin is employed, the viscosity of the resin is set to 43 to 52 seconds in terms of the Ford cup viscosity, and the resin discharge pressure from a spray gun is set to 35 kg/m +/- 0.01 kg.cm . The distance between the spray gun and the substrate for transcription is set to 100 mm +/- 5 mm, while the drying temperature is 170 to 180 DEG C. The thickness of the reception layer is 10 to 50 mu m. After transcribing the image of the sublimable dye to the reception layer, a transparent film is bonded, if necessary, as a protective film on the reception layer.
Abstract:
PROBLEM TO BE SOLVED: To easily perceive a high-quality image, when viewing an image R with a right eye and an image L with a left eye made for stereoscopic vision. SOLUTION: A polarizing plate 50R and a polarizing plate 50L, which have mutually nontransmissive polarizing characteristics, are rectangles and have the same size are jointed laterally and a frame body 51 with a prescribed width is provided on their circumference. The frame body 51 is constructed with a member, having high luminance and the width in the central part of the jointing is preferably twice as wide as the widths in the left and right side parts. The images R, L, picked up with a three-dimensional image pickup device, are placed on the lower side of the constructed polarizing plate device, so as to make the images R, L observable from windows surrounded by the frame body 51 through the polarizing plates. When they are seen in this state using eyeglasses for stereoscopic vision provided with polarizing plates, a visual sense functions so as to sum up the frame body 51 with the high luminance, the images R, L are precisely superposed with each other, crossing over of sight lines is precisely obtained corresponding to backward and forward images and a high quality three-dimensional image is obtained.
Abstract:
PROBLEM TO BE SOLVED: To provide a face mask supporting device in a moving body sensing device that the face mask can move according to the movement of a head part of a passenger irrespectively of the size of the head part of the user (passenger), and a shock to the head part can be relaxed. SOLUTION: Relating to this face mask supporting device, a face mask 43 is mounted on a face mask mount bar 52 via an elastic member 5520, in a bodily sensation simulation device comprising a mover device transmitting various motions to a user, coupling members (a strut 6, a turning arm 51, etc.), coupled to the mover device 3, a face mask mount bar 52 coupled to the coupling members, and a face mask 43 where a video device 41 and a sound device 42 are arranged at predetermined positions.
Abstract:
PROBLEM TO BE SOLVED: To make the device small-sized and superior in portability and to reproduce images under optimum conditions by irradiating a hologram or holographic stereogram mounted on a mount part with the illumination light emitted by a light source at a specific angle of incidence when a movable part moves to a specific position. SOLUTION: The movable part 3 is fitted to a device main body 2 movably between a 1st position where it is stored in the device main body 2 and a 2nd position where it stands on the device main body 2 almost vertically. Then the image reproducing device 1 irradiates the hologram 9 mounted on the hologram mount part 10 of the device main body 2 with the illumination light emitted by the light source 20 when the movable part 3 is positioned at the 2nd position. Namely, the light source 20 is arranged in the movable part 3 at the position where the hologram 9 can be irradiated with the illumination light at the specific angle of incidence when the movable part 3 is at the 2nd position.
Abstract:
PROBLEM TO BE SOLVED: To provide a simple-structured oscillation device which can make complicated motions. SOLUTION: This device has three pairs of drive means 1430 to oscillate a body 1420 to be oscillated, and each drive means 1430 has a motor 1432 and an arm 1431 which rotates with one end as a pivot by the rotation of the motor. The other end of the arm 1431 is rotatably attached to the center of the front of the body 1420 and to both sides of the rear of the body 1420. And, by controlling the drive of each drive means 1430, the body 1420 is oscillated vertically or horizontally, or moved up and down.
Abstract:
PROBLEM TO BE SOLVED: To provide a coenesthetic simulation device which allow easy getting-in and -out, and to provide plural simulated experiences. SOLUTION: This is a coenesthetic simulation device 1000 to provide coenesthetic experiences for a user, and is provided with a vidual device 1600 for displaying a stereoscopic image individually for the user, fixing devices 1200, 1240, 1260 for fixing the user in a prescribed position and having the device 1600 attached for the user to watch the stereoscopic image, and an oscillating device 1400 for oscillating the fixing devices.
Abstract:
PROBLEM TO BE SOLVED: To provide a seat unit for a wide range of use to which both adults and children can be adapted according to their physiques with one unit. SOLUTION: This seat unit is provided with a first seat portion having a first seat 1243, a second seat portion 1242 having a second seat 1253 that is arranged at a higher position than the first seat portion, a hollow portion 1241a formed at the seat back of the first seat portion, and a moving object 1254 having a smaller size than the internal circumference of the hollow portion. One plane of the moving object forms a part of the seat back corresponding to the position to which the moving object move, and the other plane forms the second seat.
Abstract:
PROBLEM TO BE SOLVED: To provide an oscillation device to make complicated motion in simple constitution. SOLUTION: This device is provided with two drive means 1430 to oscillate an object body 1420 to be oscillated, each drive means 1430 is provided with a motor 1432, and an arm 1431 which is rotated by rotation of the motor 1432 around its one end as an axis, a front center part of the object body is pivoted in such a way that the object body is capable of pitching and rolling, back part both side parts of the object body are pivoted by the other end of the arm 1431 in such a way that the arm is rotatable around the other end as an axis, and each drive means is drive-controlled to cause pitching and rolling of the object body.