Abstract: A drive device includes a circuit for selecting an arbitrary voltage among a plurality of kinds of voltages required for generating a drive signal for variably controlling potential applied to electrodes of channels. In the drive device, respective drive voltage input terminals and output terminals are respectively connected by a low-impedance connecting circuit which has low internal resistance, and a selected voltage input terminal and the output terminals are connected by a high-impedance connecting circuit which has high internal resistance. The drive device controls a drive waveform transition pattern of a drive signal such that the drive signal is output via the high-impedance connecting circuit while the potential applied to the respective electrode simultaneously changes in the same direction out of a positive direction and a negative direction and that the drive signal is output via the low-impedance connecting circuit in the other cases.

Abstract: In accordance with one embodiment, an ink jet head comprises a driving signal generator configured to apply rectangular waveform electric field pulse to a partition wall forming a pressure chamber for ejecting ink; wherein the driving signal generator applies, to a second partition wall adjacent to a first partition wall forming the pressure chamber for ejecting ink and a third partition wall adjacent to the second partition wall, electric field pulse including at least one rectangular waveform which is a rectangular waveform opposite to the electric field pulse applied to the adjacent first partition wall and has a pulse width determined based on the electric field pulse at the timing corresponding to the electric field pulse applied to the first partition wall, in a case of ejecting ink from any of the plurality of pressure chambers.

Abstract: An ink jet head includes an actuator configured to cause ejection of ink, and a driver. The driver is configured to receive serial data including a first command, a second command subsequent thereto, and print data for printing or setting data for setting of the ink jet head that is subsequent to the second command, detect the first command in the serial data, decode the second command, and control the actuator based on the decoded second command.

Abstract: In accordance with one embodiment, an ink jet head comprises a driving signal generator configured to apply rectangular waveform electric field pulse to a partition wall forming a pressure chamber for ejecting ink; wherein the driving signal generator applies, to a second partition wall adjacent to a first partition wall forming the pressure chamber for ejecting ink and a third partition wall adjacent to the second partition wall, electric field pulse including at least one rectangular waveform which is a rectangular waveform opposite to the electric field pulse applied to the adjacent first partition wall and has a pulse width determined based on the electric field pulse at the timing corresponding to the electric field pulse applied to the first partition wall, in a case of ejecting ink from any of the plurality of pressure chambers.

Abstract: A drive device includes a circuit for selecting an arbitrary voltage among a plurality of kinds of voltages required for generating a drive signal for variably controlling potential applied to electrodes of channels. In the drive device, respective drive voltage input terminals and output terminals are respectively connected by a low-impedance connecting circuit which has low internal resistance, and a selected voltage input terminal and the output terminals are connected by a high-impedance connecting circuit which has high internal resistance. The drive device controls a drive waveform transition pattern of a drive signal such that the drive signal is output via the high-impedance connecting circuit while the potential applied to the respective electrode simultaneously changes in the same direction out of a positive direction and a negative direction and that the drive signal is output via the low-impedance connecting circuit in the other cases.

Abstract: According to one embodiment, a driving device applies an ejection pulse signal that deforms a partition in such a way that an ink drop is ejected from a nozzle and an auxiliary pulse signal that deforms the partition to such an extent that an ink drop is not ejected from the nozzle, as a drive signal for providing a potential difference between electrodes, to an inkjet head at different timings so that the two pulse signals are not applied simultaneously. A constraint on output of the auxiliary pulse signal is significantly relaxed.

Abstract: A pulse generator forms, from setting data respectively stored in an ejection relevant waveform setting register and a first high impedance setting register, an ejection relevant driving pulse for setting an electrode of an ink chamber communicating with an ejection relevant nozzle to a high impedance state for a predetermined period. The pulse generator forms, from setting data respectively stored in an ejection both-side waveform setting register and a second high impedance setting register, an ejection both-side driving pulse for setting electrodes of ink chambers communicating with ejection both-side nozzles to the high impedance state for the predetermined period. The pulse generator outputs signals of the formed driving pulses to an inkjet head.

Abstract: A hose for transporting fluids in which a plurality of carcass layers is disposed between an inner surface rubber layer and a cover rubber layer, and a visible design, continuous in a hose axial direction, is provided on an outer surface of the cover rubber layer. The hose for transporting fluids includes a sliding-surface layer that is embedded at least partially in the hose axial direction in the cover rubber layer and that is non-adhesive with respect to the cover rubber layer, and a constraining layer that is embedded so as to be wound partially in a hose circumferential direction on an outer side of the sliding-surface layer and that is adhesive with respect to the cover rubber layer.

Abstract: According to one embodiment, a driving device applies an ejection pulse signal that deforms a partition in such a way that an ink drop is ejected from a nozzle and an auxiliary pulse signal that deforms the partition to such an extent that an ink drop is not ejected from the nozzle, as a drive signal for providing a potential difference between electrodes, to an inkjet head at different timings so that the two pulse signals are not applied simultaneously. A constraint on output of the auxiliary pulse signal is significantly relaxed.

Abstract: A pulse generator forms, from setting data respectively stored in an ejection relevant waveform setting register and a first high impedance setting register, an ejection relevant driving pulse for setting an electrode of an ink chamber communicating with an ejection relevant nozzle to a high impedance state for a predetermined period. The pulse generator forms, from setting data respectively stored in an ejection both-side waveform setting register and a second high impedance setting register, an ejection both-side driving pulse for setting electrodes of ink chambers communicating with ejection both-side nozzles to the high impedance state for the predetermined period. The pulse generator outputs signals of the formed driving pulses to an inkjet head.

Abstract: There is provided a controller which sets electrodes which are respectively disposed on wall surfaces of a plurality of ink chambers which are arranged in parallel so as to be separated from each other by partitions made of a piezoelectric material, to a high impedance state. In addition, at a timing when an identical potential is applied to the electrodes of at least three ink chambers which are arranged in parallel so as to be separated from each other by mutually adjacent partitions, the controller sets electrodes of ink chambers other than ink chambers located on both sides to a high impedance state.

Abstract: An image processing apparatus includes an image forming unit, an adjustment unit, an image control unit, a sensor, a deviation amount calculating unit, and a determination unit. The image forming unit forms an image. The adjustment unit forms one set of a plurality of predetermined images in color, and adjusts color deviation. The image control unit controls the image forming unit to form a lesser number of predetermined images than the number of predetermined images formed by the adjustment unit. The sensor detects the predetermined images formed on the basis of control of the image control unit by the image forming unit. The deviation amount calculating unit calculates a deviation amount on the basis of the predetermined images. The determination unit determines whether or not color deviation occurs on the basis of the deviation amount, and controls performance of the adjustment unit on the basis of the determination result.

Abstract: A hose for transporting fluids in which a plurality of carcass layers 5, 7, and 9 is disposed between an inner surface rubber layer 4 and a cover rubber layer 10, and a visible design 3, continuous in a hose axial direction, is provided on an outer surface of the cover rubber layer 10. The hose for transporting fluids includes a sliding-surface layer 11 that is embedded at least partially in the hose axial direction in the cover rubber layer 10 and that is non-adhesive with respect to the cover rubber layer 10, and a constraining layer 12 that is embedded so as to be wound partially in a hose circumferential direction on an outer side of the sliding-surface layer 11 and that is adhesive with respect to the cover rubber layer 10.

Abstract: An image processing apparatus includes an image forming unit, an adjustment unit, an image control unit, a sensor, a deviation amount calculating unit, and a determination unit. The image forming unit forms an image. The adjustment unit forms one set of a plurality of predetermined images in color, and adjusts color deviation. The image control unit controls the image forming unit to form a lesser number of predetermined images than the number of predetermined images formed by the adjustment unit. The sensor detects the predetermined images formed on the basis of control of the image control unit by the image forming unit. The deviation amount calculating unit calculates a deviation amount on the basis of the predetermined images. The determination unit determines whether or not color deviation occurs on the basis of the deviation amount, and controls performance of the adjustment unit on the basis of the determination result.

Abstract: A timer circuit includes a storage unit to store a series of first data content relating to a time into a specified address area, a target value generation unit to read the first data content from a read address of the storage unit and to generate, as a target value, third data content in which second data content is added to the first data content, a counter to perform counting and to output a count-up signal when the counting is performed up to the target value, and a control unit to sequentially designate a next read address of the storage unit at each count-up and to cause the series of operations of the target value generation unit and the counter to be executed.

Abstract: A control device for a stepping motor of the present invention stores setting data for controlling a state of the stepping motor in a data storage unit for each of a plurality of basic control items obtained by classifying control from activation to stoppage of the stepping motor. In addition, the control device for the stepping motor includes a plurality of modules that execute processing with respect to the basic control items and a module control unit that specifies the order of executing the processing by the plurality of modules in advance, and controls the stepping motor by operating the modules in accordance with the specified executing order based on the setting data stored in the data storage unit.

Abstract: An image forming apparatus of the invention includes plural photoconductive bodies for forming a color image, an exposure unit to scan a laser light in a main scanning direction of each of the plural photoconductive bodies and to perform exposure, and a light amount correction unit to create, for each of the plural photoconductive bodies, light amount correction data for correcting a light amount of the laser light outputted form the exposure unit so that a light receiving sensitivity of each of the plural photoconductive bodies in the main scanning direction becomes uniform, and the light amount correction unit includes a first storage unit to store reference correction data, a second storage unit to store reference correction data, a second the reference correction data is made an absolute amount, by a relative amount correspondingly to each of the plural photoconductive bodies, and a combining unit to combine the reference correction data and the relative correction data to create the light amount correcti

Abstract: A timer circuit includes a storage unit to store a series of first data content relating to a time into a specified address area, a target value generation unit to read the first data content from a read address of the storage unit and to generate, as a target value, third data content in which second data content is added to the first data content, a counter to perform counting and to output a count-up signal when the counting is performed up to the target value, and a control unit to sequentially designate a next read address of the storage unit at each count-up and to cause the series of operations of the target value generation unit and the counter to be executed.

Abstract: An excitation phase pattern used to manage only the number of phases being excited in W1-2 phase excitation, and an excitation phase pattern used to manage only the number of phases being excited in 2W1-2-phase excitation are generated. The excitation phase patterns thus generated are monitored on the monitor.

Abstract: An image forming apparatus of the invention includes plural photoconductive bodies for forming a color image, an exposure unit to scan a laser light in a main scanning direction of each of the plural photoconductive bodies and to perform exposure, and a light amount correction unit to create, for each of the plural photoconductive bodies, light amount correction data for correcting a light amount of the laser light outputted from the exposure unit so that a light receiving sensitivity of each of the plural photoconductive bodies in the main scanning direction becomes uniform, and the light amount correction unit includes a first storage unit to store reference correction data, a second storage unit to store relative correction data represented, when the reference correction data is made an absolute amount, by a relative amount correspondingly to each of the plural photoconductive bodies, and a combining unit to combine the reference correction data and the relative correction data to create the light amount c