Abstract:
A converter that converts a data received from a wireless communication interface to a data that is based on a wire-communication standard, the converter including a wire-communication interface that communicates with a printer based on a wire-communication standard, a wireless communication interface that communicates with a terminal unit based on the wireless communication standard, a receiving unit that receives a data from the terminal unit via the wireless-communication interface, a communication establishment unit that establishes a communication with the printer via the wire-communication interface, and a wire-communication unit that transmits the data received by the receiving unit via the established communication to the printer, wherein the communication establishment unit establishes a communication with the printer when the receiving unit receives the data.
Abstract:
A magnetic-recording-disk test-head. The magnetic-recording-disk test-head includes a slider, a test pad and a slider-surface-shape control mechanism. The slider includes a leading edge and a trailing edge. The test pad is disposed at a trailing-edge side of the slider and is configured to remove and to detect asperities on a magnetic-recording disk. The slider-surface-shape control mechanism is configured to change a shape of an air-bearing surface of the slider and is disposed at a leading-edge side of the slider.
Abstract:
When a wireless IC tag in which information on a print area of a medium is recorded is provided in the medium, an image forming apparatus which forms an image on the medium by inputting the image includes: a wireless IC tag reader which reads information recorded in the wireless IC tag; an information acquiring unit which acquires the information from the wireless IC tag by using the wireless IC tag reader; a tag actual location designating unit which designates an actual location of the wireless IC tag by using the wireless IC tag reader; a reference location designating unit which designates a reference location of the medium; an angle calculating unit which calculates a rotational angle used to set the designated actual location of the wireless IC tag to a predetermined location on the basis of the designated reference location of the medium; and an image forming unit which forms the image in the print area of the medium by rotating the image by the calculated rotational angle.
Abstract:
A printing apparatus includes: a tag information reading/writing unit which reads information from an IC tag attached to or embedded in a predetermined location of a print medium and writes information to the IC tag through wireless communication with the IC tag and which reads layout information, which defines at least a location of a printable area on the print medium, from the IC tag; a record data inputting unit which inputs record data representing contents recorded on the print medium; and a printing control unit which performs a printing process on the print medium on the basis of print target data in which a print location of the contents represented by the record data is determined on the basis of the layout information and which updates the layout information on the basis of information directly or indirectly representing a printed area in the print medium subjected to the printing process and allows the tag information reading/writing unit to write the layout information subjected to the updating process to the IC tag.
Abstract:
A data transmitting apparatus for transmitting data to a communication recipient by one-way communication includes a data transmitting unit transmitting data to the communication recipient by the one-way communication of a predetermined communication format; a data selecting unit allowing a user to select the data to be transmitted by the one-way communication; an instruction inputting unit allowing the user to input an instruction to transmit the data selected by the data selecting unit to the communication recipient by the one-way communication; a control unit controlling the data transmitting unit to transmit the data selected by the data selecting unit to the communication recipient by the one-way communication on the basis of the instruction input through the instruction inputting unit; and a detecting unit detecting successive inputs that the instruction to transmit the same data to the communication recipient by the one-way communication is successively input by the instruction inputting unit, when the data selecting unit selects the same data, wherein the control unit controls the data transmitting unit to change the communication format of the one-way communication when the detecting unit detects the successive inputs.
Abstract:
The data reception apparatus includes a main processing unit that waits in a standby state so as to be able to receive the connection signal that is transmitted in a first communication mode, and further receives, after reception of the connection signal, the data signal that is transmitted in a second communication mode that is different from the first communication mode; a sub processing unit that is provided in addition to the main processing unit, the sub processing unit being capable of receiving the data signal that is transmitted in the second communication mode; a notification unit that is capable of notifying information to a user; and a notification control unit that controls the notification unit so that the notification unit notifies a communication error to the user if the sub processing unit has received the data signal although the main processing unit has not received the connection signal.
Abstract:
Embodiments of the invention provide a slider structure able to lower a flying height compensation ratio caused by a projecting deformation of an air bearing surface of a slider by a flying height control mechanism and afford a change in flying height with a low control power. In one embodiment, a slider is provided with a leading edge, an air bearing surface, and a trailing edge. The air bearing surface includes a front pad, the front pad being made up of a front step bearing surface, leading rail surfaces, and side step bearing surfaces. The air bearing surface also includes a negative pressure groove surface surrounded by the front pad. The air bearing surface further includes a rear pad, the rear pad being made up of a rear step bearing surface formed at the same depth as the depth of the front step bearing surface and positioned on the trailing edge side, a trailing rail surface, an intermediate groove deeper than the trailing rail surface, and a trailing pad surface lying at the same height as the trailing rail surface. The front and both sides of the trailing pad surface are surrounded by the trailing rail surface.
Abstract:
A magnetic head slider, for sliding on a magnetic disk, which comprises a leading edge, a trailing edge, an air bearing surface having a front step bearing of submicron depth made from the leading edge, and a rail surface made from the front step bearing. A negative pressure recess, which is more profound than the front step bearing, is made from the rail surface, and a side step bearing with a depth identical to that of the front step bearing is made from the rail surface, wherein the ratio of depth R of the recess and depth δs of the front step bearing is R/δs≧5.
Abstract:
A magnetic head slider assembly is provided, in which a flying height of the head slider is not changed when a peripheral speed and a yaw angle of the magnetic head slider assembly with respect to a magnetic disk are changed according to the change of a magnetic head slider radial position, so that a difference between flying heights in floating profiles become minimum. The magnetic head slider is provided with two stepped surfaces via a difference portion with respect to a contact surface of an inflow pad or an outflow pad of the magnetic head slider (1), wherein a ratio &dgr;s/&dgr;r between a depth &dgr;s of the first stepped surface and a depth &dgr;r of the second stepped surface with respect to the contact surface and a ratio xp/L between a length L of the slider in an air stream inflow direction and a distance xp between an air stream inflow end and a dimple position of the slider are respectively set in a range 0.047≦&dgr;s/&dgr;r≦0.364 and 0.002≦xp/L≦0.4, or a range 0.008≦&dgr;s/&dgr;r≦0.025 and 0.55≦xp/L.
Abstract translation:提供了一种磁头滑动器组件,其中当磁头滑动器组件相对于磁盘的圆周速度和偏航角根据磁头的变化而改变时,磁头滑块的飞行高度不改变 滑块径向位置,使得浮动轮廓中的飞行高度之间的差异变得最小。 磁头滑块相对于磁头滑动器(1)的流入垫或流出垫的接触表面经由差分部分设置有两个台阶表面,其中在第一和第二位置之间的三角形/三角形之间的比率增加/ 阶梯面和相对于接触表面的第二台阶表面的深度差,以及滑块在气流流入方向上的长度L与空气流入端与凹坑位置之间的距离xp的比xp / L 分别设置在0.047 <= deltas / deltar <= 0.364和0.002 <= xp / L <= 0.4的范围内,或0.008 <= deltas / deltar <= 0.025和0.55 <= xp / L的范围内。
Abstract:
A mouthpiece unit (6) of a semiclosed-circuit breathing apparatus (1) includes a inhaled/exhaled air circulation chamber (61), an inhalation gas supply opening (71) for providing a constant flow of fresh breathing gas from a breathing gas cylinder, a mouthpiece (62) attached to an external opening (65), and manually operated members (75, 76) that are maintained at an initial position by a resilient force and can be moved to a first operating position against the resilient force. In an interlocking operation, movement of the manually operated members to the first operating position is accompanied by opening of an external opening (65) by a valve (101). A first lever (73) opens and closes the gas supply opening (71) in conjunction with the opening and closing operation of the valve (101). A latch lever (105) is engaged with the valve (101) when the valve (101) is in the open state, and maintains this engagement to thereby maintain the valve (101) in an open state as long as the diver holds the latch lever (105) in his or her mouth. If the latch lever (105) comes out of the mouth, the external opening valve (101) and gas supply opening (71) close automatically.