Abstract: A plate printing method includes a repetition of a first step of depositing ink on a printing master to form a predetermined print pattern on it, a second step of transferring the ink to a blanket, a third step of pressing the blanket against a surface to be printed, a fourth step of pressing the blanket against a cleaning surface, a fifth step of pressing the blanker against an absorbent, a sixth step of blowing air to the blanket, and a seventh step of pressing the blanket against a dry surface. In the first step, the blanket with a proper amount of water or solvent impregnated into it is pressed against the printing master.

Abstract: A method of manufacturing conductive wiring includes: printing on an insulated substrate 1 with ink 2 to form a predetermined pattern (S1); placing (spraying) conductive powder 3 on the ink 2 (in the predetermined pattern) before the printed ink 2 dries (S2); pressing the placed conductive powder 3 against the insulated substrate 1 to compress the conductive powder 3 (S3); and heating the compressed conductive powder 3 to sinter the conductive powder 3 (S4), and by such a series of processes (S1 to S4), conductive wiring 20 is manufactured.

Abstract: A printing method wherein when pressing a printing blanket made from an elastic material which becomes thinner towards the tip thereof, is pressed against an original plate for printing, to which ink has been applied, the descending speed is set to a minimum when the tip of the printing blanket comes into contact with the original plate for printing, and as the pressing progresses, the descending speed is increased. Similarly, when the printing blanket is pressed against the surface to be printed, the descending speed is set to a minimum when the tip of the printing bracket comes into contact with the surface to be printed and as the pressing progresses, the descending speed is increased.

Abstract: A printing method wherein when pressing a printing blanket made from an elastic material which becomes thinner towards the tip thereof, is pressed against an original plate for printing, to which ink has been applied, the descending speed is set to a minimum when the tip of the printing blanket comes into contact with the original plate for printing, and as the pressing progresses, the descending speed is increased. Similarly, when the printing blanket is pressed against the surface to be printed, the descending speed is set to a minimum when the tip of the printing bracket comes into contact with the surface to be printed and as the pressing progresses, the descending speed is increased.

Abstract: A plate printing method includes a repetition of a first step of depositing ink on a printing master to form a predetermined print pattern on it, a second step of transferring the ink to a blanket, a third step of pressing the blanket against a surface to be printed, a fourth step of pressing the blanket against a cleaning surface, a fifth step of pressing the blanker against an absorbent, a sixth step of blowing air to the blanket, and a seventh step of pressing the blanket against a dry surface. In the first step, the blanket with a proper amount of water or solvent impregnated into it is pressed against the printing master.

Abstract: A printing method includes a step of dividing the to-be-printed surface 10 of a to-be-printed object 100 into a plurality of small to-be-printed surfaces 1a, 1b, . . . (a, b, . . . will be omitted below) and dividing a picture 20 to be printed on the to-be-printed surface 10 into small pictures 2 to be printed on the small to-be-printed surfaces 1, a step of a creating small developed picture 3 by developing each of the small pictures 2 into a plane, a step of putting ink on small printing original plate 30 corresponding to the small to-be-printed surface 1 according to the small developed picture 2, a step of a pressing small printing blanket 40 corresponding to each of the small to-be-printed surfaces 1 against the corresponding small printing original plate 30 and transferring the ink, and a step of printing the picture 20 on the to-be-printed surface 1 by pressing the small printing blanket 30 grasped by the arm of a multi-axis robot against the small to-be-printed surface 1 to print the small picture 2.

Abstract: A method for printing on a curved surface and a printed curved surface body using the method. The method includes the steps of: applying printing ink having a viscosity of 5-500 PaS, preferably 5-250 PaS, to a protrusion portion of a relief printing master plate 3 which is a flat plate with the protrusion portion 0.1-50 ?m high, preferably 0.

Abstract: This antenna (10) has an underlying print layer (2) which is upon the surface of a material (1) to be printed in a predetermined antenna pattern, and an electro-less plating layer (3) applied to the surface of the underlying print layer (2). The underlying print layer (2) is formed from an ink (2a) and a metallic powder (2b). A portion of the particles of the metallic powder (2b) are entrained within the ink layer in which the ink (2a) has been printed in a substantially uniform thickness. Some particles which are of large particle size project from the ink layer, and a portion of the ink (2a) covering the projecting portions is removed.

Abstract: A fan includes a shaft, a hollow, approximately cylindrical rotor yoke that rotates around the shaft as a rotation axis and is open toward one of its axial ends, a rotor magnet secured to an inner circumference of the rotor yoke, and an impeller secured to an outer circumference of the rotor yoke and arranged to rotate together with the rotor yoke to generate an air flow. One of the impeller and the rotor yoke is provided with an index used for circumferentially positioning the impeller or the rotor yoke.

Abstract: To provide a printing blanket that enables good and rapid printing on a nonlinear printing surface (e.g., a doughnut-shaped outer surface). A printing blanket 10 is ring-shaped in plan view and includes an attachment surface 1, an inward facing surface 2, an outward facing surface 3, the inward and outward facing surfaces 2 and 3 being protruding surfaces, and ridge lines 4 which smoothly connect the inward facing surface 2 and the outward facing surface and which are substantially arc-shaped in section. A circle connecting the ridge lines 4 serves as a pitch circle 5 having a curvature radius P5. The printing blanket is suitable for printing on a steering wheel 20 having a pitch circle 8 having a curvature radius P8 which substantially coincides with the curvature radius P5.

Abstract: A printing pad (2) having a double structure comprising a roughly quadrangular pyramid-shaped elastic body (2a) and a coating layer (2d) which covers a definite range of a side face (2b) including an apex (2c) of the elastic body (2a), wherein said elastic body (2a) and said coating layer (2d) contain a silicone oil to ensure ink transfer (receiving and delivering) and impart elasticity (flexibility), and the coating layer (2d) is made harder (i.e., containing the silicone oil in a smaller amount) than the elastic body (2a).

Abstract: In a motor, axially upper and lower end surfaces of the stator core are substantially covered by a first insulator and a second insulator, both of which are made of resin. A boss is arranged circumferentially between two neighboring teeth. Three bosses are arranged at three out of four positions defined between any two neighboring teeth. A conductor pin is inserted into each boss along an axial direction. The boss includes a hole extending axially upward from the axially lower end thereof, in which a conductor pin is fitted. An axially lower position of the conductor pin axially downwardly protrudes from the boss. The conductor pin is inserted into each of the notched portions arranged to the circuit board, and is soldered with the circuit board such that the conductor pin and the circuit board are electrically connected.

Abstract: A printing method includes a step of dividing the to-be-printed surface 10 of a to-be-printed object 100 into a plurality of small to-be-printed surfaces 1a, 1b, . . . (a, b, . . . will be omitted below) and dividing a picture 20 to be printed on the to-be-printed surface 10 into small pictures 2 to be printed on the small to-be-printed surfaces 1, a step of a creating small developed picture 3 by developing each of the small pictures 2 into a plane, a step of putting ink on small printing original plate 30 corresponding to the small to-be-printed surface 1 according to the small developed picture 2, a step of a pressing small printing blanket 40 corresponding to each of the small to-be-printed surfaces 1 against the corresponding small printing original plate 30 and transferring the ink, and a step of printing the picture 20 on the to-be-printed surface 1 by pressing the small printing blanket 30 grasped by the arm of a multi-axis robot against the small to-be-printed surface 1 to print the small picture 2.

Abstract: Axially upper and lower end surfaces of the stator core 41 are substantially covered by the first insulator 421 and the second insulators 422, both of which are made of resin. A boss 4222 is arranged circumferentially between the two neighboring teeth 411. In the preferred embodiment of the present invention, three bosses 4222 are arranged at three out of four positions defined between any two neighboring teeth 411. A conductor pin 43 is inserted into each boss 4222 along the axial direction. The boss 4222 includes a hole extending axially upward from the axially lower end thereof, in which a conductor pin 43 is fitted. An axially lower position of the conductor pin 43 axially downwardly protrudes from the boss 4222. Into each of the notched portions 441 arranged to the circuit board 44, the conductor pin 43 is inserted and is soldered with the circuit board 44 such that the conductor pin 43 and the circuit board are electrically connected.

Abstract: An antenna pattern having a broad band characteristic as to frequencies and having a wide directivity, and an electromagnetic wave energy processing device having the antenna pattern, particularly a sheet-like antenna or electromagnetic wave shielding filter. A conductor wire forming the antenna pattern comprises an aggregated wire consisting of mesh or continuously polygonal micro-image element lines or parallel element lines. The element lines are 5-300 ?m in line width and 5-1,000 ?m in line pitch interval, or the most preferably 5-30 ?m in line width and 5-150 ?m in line pitch interval. The element lines are printed with printing ink or paste material mixed with conductive powder. In accordance with necessity, pressure treatment or polishing treatment and/or conductive plating with aid of eletroless plating or directly without aid of eletroless plating are performed on the printed surface.

Abstract: A method for creating a print or coating image, characterized by including a first step of printing or coating a surface of a to-be-printed or to-be-coated product with a predetermined print or coating image using a mixture fluid in which predetermined powder has been mixed into printing ink or paint, a second step of pressure-treating and/or polishing at least the printed or coated print or coating image surface in predetermined conditions, and a third step of further plating the pressure-treated and/or polished print or coating image surface, or including a first step of printing or coating a surface of a to-be-printed or to-be-coated product with a predetermined print or coating using printing ink or paint, a second step of spraying the printed or coated surface with predetermined powder before the printed or coated surface is hardened, a third step of further pressure/compression-treating the print or coating image surface, a fourth step of drying and fixing the print or coating image surface, a fifth ste

Abstract: An offset printing method using an inkjet system, and a printed product printed thereby. The offset printing method includes a first step of printing a UV ink image on a flat original plate by inkjet using UV-ink, a second step of irradiating the UV ink image with a UV or an electron beam while or immediately after printing the UV ink image, so as to bring the UV ink image into a semi-dried state, a third step of transferring the semi-dried UV ink image to a surface of an elastic blanket, a fourth step of offset-printing the UV ink image transferred to the elastic blanket onto a to-be-printed product, and a step of drying and fixing the offset-printed UV ink image. Viscosity of the UV ink in the first step is set as 3-100 mPaS at 30° C., and viscosity of the UV ink in the second step is set as viscosity equivalent to 0.1-300 PaS at 25° C. in standard UV ink.

Abstract: A method for printing on a curved surface and a printed curved surface body using the method. The method includes the steps of: applying printing ink having a viscosity of 5-500 PaS, preferably 5-250 PaS, to a protrusion portion of a relief printing master plate 3 which is a flat plate with the protrusion portion 0.1-50 ?m high, preferably 0.

Abstract: Axially upper and lower end surfaces of the stator core 41 are substantially covered by the first insulator 421 and the second insulators 422, both of which are made of resin. A boss 4222 is arranged circumferentially between the two neighboring teeth 411. In the preferred embodiment of the present invention, three bosses 4222 are arranged at three out of four positions defined between any two neighboring teeth 411. A conductor pin 43 is inserted into each boss 4222 along the axial direction. The boss 4222 includes a hole extending axially upward from the axially lower end thereof, in which a conductor pin 43 is fitted. An axially lower position of the conductor pin 43 axially downwardly protrudes from the boss 4222. Into each of the notched portions 441 arranged to the circuit board 44, the conductor pin 43 is inserted and is soldered with the circuit board 44 such that the conductor pin 43 and the circuit board are electrically connected.

Abstract: An antenna pattern having a broad band characteristic as to frequencies and having a wide directivity, and an electromagnetic wave energy processing device having the antenna pattern, particularly a sheet-like antenna or electromagnetic wave shielding filter. A conductor wire forming the antenna pattern comprises an aggregated wire consisting of mesh or continuously polygonal micro-image element lines or parallel element lines. The element lines are 5-300 ?m in line width and 5-1,000 ?m in line pitch interval, or the most preferably 5-30 ?m in line width and 5-150 ?m in line pitch interval. The element lines are printed with printing ink or paste material mixed with conductive powder. In accordance with necessity, pressure treatment or polishing treatment and/or conductive plating with aid of eletroless plating or directly without aid of eletroless plating are performed on the printed surface.