Abstract: A semiconductor storage device includes a first memory area configured in a volatile semiconductor memory, second and third memory areas configured in a nonvolatile semiconductor memory, and a controller which executes following processing. The controller executes a first processing for storing a plurality of data by the first unit in the first memory area, a second processing for storing data outputted from the first memory area by a first management unit in the second memory area, and a third processing for storing data outputted from the first memory area by a second management unit in the third memory area.

Abstract: When graphics computations are to be performed to calculate the display data of a figure to be drawn within a frame that is formed of a plurality of lines in accordance with input vector data, the present invention reduces the storage capacity of a RAM to which a work area for storing intermediate data is allocated. When the graphics computations are to be performed, the frame in which the figure is to be displayed is segmented into a plurality of drawing areas for each of the lines. As regards the work area for storing the intermediate data, the same work area is allocated to all the drawing areas. The graphics computations for calculating the intermediate data of the individual drawing areas are sequentially performed by repeatedly using the same work area.

Abstract: When graphics computations are to be performed to calculate the display data of a figure to be drawn within a frame that is formed of a plurality of lines in accordance with input vector data, the present invention reduces the storage capacity of a RAM to which a work area for storing intermediate data is allocated. When the graphics computations are to be performed, the frame in which the figure is to be displayed is segmented into a plurality of drawing areas for each of the lines. As regards the work area for storing the intermediate data, the same work area is allocated to all the drawing areas. The graphics computations for calculating the intermediate data of the individual drawing areas are sequentially performed by repeatedly using the same work area.

Abstract: When graphics computations are to be performed to calculate the display data of a figure to be drawn within a frame that is formed of a plurality of lines in accordance with input vector data, the present invention reduces the storage capacity of a RAM to which a work area for storing intermediate data is allocated. When the graphics computations are to be performed, the frame in which the figure is to be displayed is segmented into a plurality of drawing areas for each of the lines. As regards the work area for storing the intermediate data, the same work area is allocated to all the drawing areas. The graphics computations for calculating the intermediate data of the individual drawing areas are sequentially performed by repeatedly using the same work area.

Abstract: A piezoelectric vibrating piece includes a vibrator, a framing portion that surrounds the vibrator, a connecting portion that connects the vibrator and the framing portion, an excitation electrode on each of a front surface and a back surface of the vibrator, and a first extraction electrode and a second extraction electrode on the framing portion. The first extraction electrode and the second extraction electrode are electrically connected to the respective excitation electrodes. The piezoelectric vibrating piece includes a front surface and a back surface. A stepped portion is disposed on at least one of the front surface and the back surface of the piezoelectric vibrating piece. In a case where one of the first extraction electrode and the second extraction electrode is disposed across the stepped portion, another one of the first extraction electrode and the second extraction electrode is disposed to avoid crossing over the stepped portion.

Abstract: A piezoelectric device includes a piezoelectric vibrating piece, a lid portion, and a base portion. The piezoelectric vibrating piece includes a vibrating portion, a framing portion surrounding the vibrating portion, an excitation electrode on the vibrating portion, and an extraction electrode on the framing portion. The extraction electrode is electrically connected to the excitation electrode. The lid portion is bonded to a front surface of the piezoelectric vibrating piece. The base portion is bonded to a back surface of the piezoelectric vibrating piece. The base portion includes an external electrode electrically connected to the extraction electrodes. The framing portion includes a metallic layer that allows a passivation. The metallic layer is disposed at an outer peripheral edge portion corresponding to the extraction electrode on at least one of a front surface and a back surface.

Abstract: When graphics computations are to be performed to calculate the display data of a figure to be drawn within a frame that is formed of a plurality of lines in accordance with input vector data, the present invention reduces the storage capacity of a RAM to which a work area for storing intermediate data is allocated. When the graphics computations are to be performed, the frame in which the figure is to be displayed is segmented into a plurality of drawing areas for each of the lines. As regards the work area for storing the intermediate data, the same work area is allocated to all the drawing areas. The graphics computations for calculating the intermediate data of the individual drawing areas are sequentially performed by repeatedly using the same work area.

Abstract: Disclosed is an optical communication module including a module base in an approximately rectangular shape in which the light path member is introduce from one end surface in a longitudinal direction, a cover member provided at an upper portion of the module base and a plurality of pairs of conductive members in which each of the conductive members constituting a pair are respectively disposed at both outside surfaces of the module base and which are electrically connected to the light path member, and a concave portion is formed at an upper surface of the module base, the cover member is formed so as to cover an opening of the concave portion, and the conductive members are formed so as to extend for equal lengths toward an upper surface side and a lower surface side of the module base from a center line of a height direction of the outside surfaces.

Abstract: Provided is a connector for connecting an electronic component, which reduces noise radiation when the electronic component is connected to a substrate through the connector and driven. In a connector (100), a connector main body (130) stores a module (210) inside an opening section (110), and the connector main body is mounted on the substrate by being electrically connected to the stored module (210). The connector main body (130) is provided with a contact lead section (120b) which is lead out to the side of the connector main body (130) to be bonded to a conductor on the substrate. A cover member (160) which opens and closes by turning with a shaft section (161) at the center is pivotally supported on the connector main body (130), and the opening section (110) is covered with the cover member (160) from above. The cover member (160) is provided with a conductive skirt section (170) for covering the contact lead section (120b) from above in a closed state.

Abstract: Provided is an electrooptic conversion module, which can replace electronic parts more economically in case a malfunction occurs or in case an improvement is needed. In the electrooptic conversion module (1), a plurality of split units such as an optical signal transmit/receive unit (201) for converting an electric signal inputted into an optical signal to output the converted signal to the optical waveguide (2), an amplifying unit (202) and a communication control unit (203) are so fitted and retained in a fitting unit (120) to be connected with a cover member (111) exposed to the outside, that the terminal portions in the fitting portion (120) and the electrode portions of those split units contact with each other.

Abstract: Disclosed is an optical communication module including a module base in an approximately rectangular shape in which the light path member is introduce from one end surface in a longitudinal direction, a cover member provided at an upper portion of the module base and a plurality of pairs of conductive members in which each of the conductive members constituting a pair are respectively disposed at both outside surfaces of the module base and which are electrically connected to the light path member, and a concave portion is formed at an upper surface of the module base, the cover member is formed so as to cover an opening of the concave portion, and the conductive members are formed so as to extend for equal lengths toward an upper surface side and a lower surface side of the module base from a center line of a height direction of the outside surfaces.

Abstract: Provided is a connector for connecting an electronic component, which reduces noise radiation when the electronic component is connected to a substrate through the connector and driven. In a connector (100), a connector main body (130) stores a module (210) inside an opening section (110), and the connector main body is mounted on the substrate by being electrically connected to the stored module (210). The connector main body (130) is provided with a contact lead section (120b) which is lead out to the side of the connector main body (130) to be bonded to a conductor on the substrate. A cover member (160) which opens and closes by turning with a shaft section (161) at the center is pivotally supported on the connector main body (130), and the opening section (110) is covered with the cover member (160) from above. The cover member (160) is provided with a conductive skirt section (170) for covering the contact lead section (120b) from above in a closed state.

Abstract: A connector, including: a receptacle including a projecting terminal electrically connected to an external terminal; and a plug including a contact point with an elastic section to elastically deform when the projecting terminal is inserted therein to be electrically connected to the projecting terminal by resilience.

Abstract: The present invention provides a glossy ink-jet recording sheet comprising: a paper support; a solvent-absorbing layer comprising a pigment and an adhesive; and an ink-fixing layer comprising a pigment and an adhesive, the ink-fixing layer having a mirror-finished surface; or a glossy ink-jet recording sheet comprising: a paper support; a solvent-absorbing layer comprising a pigment and an adhesive; an ink-fixing layer comprising a pigment and an adhesive; and a glossy layer having a mirror-finished surface; characterized in that the adhesive of the solvent-absorbing layer comprises a ternary copolymer consisting of an alkyl(meth)acrylate, a N-methylolacrylamide, and a styrene.