Abstract: An information processing apparatus includes: a print data acquisition unit that acquires print data; a layout information acquisition unit that acquires layout information concerning plural image forming parts that are aligned from an upstream side toward a downstream side in a moving direction of a transfer target that moves and form images of respective different colors on the transfer target; and an image information generation unit that generates pieces of image information for the respective colors used by the plural image forming parts from the print data during a generation period and generates image information used by an image forming part located on an upstream side in the moving direction more in a former half of the generation period than in a latter half of the generation period.

Abstract: An image forming apparatus includes: a first information processing unit that performs information processing for image formation on obtained image data by an image processing specific program; and a second information processing unit that performs information processing for image formation on the image data by a general-purpose processing program also performing processing other than image processing when a value related to the information processing by the first information processing unit satisfies a predetermined condition.

Abstract: A processing device includes a reception unit, a processing unit, and an output unit. The reception unit receives a process designated by a user. The processing unit performs the process received by the reception unit. The output unit outputs the process to an external apparatus capable of executing the process received by the reception unit. When the reception unit receives multiple processes, a process that is included in the multiple processes and in which an output from the processing device has to be obtained is performed in the processing device, and at least a part of a process that is included in the multiple processes and in which an output from the processing device does not have to be obtained is output to the external apparatus by the output unit.

Abstract: An image processing device includes an acquisition unit and an image processing unit. The acquisition unit acquires execution information regarding necessary processing units of plural processing units for performing an image process and an order in which the processing units are executed from an external apparatus. The image processing unit performs the image process by executing the necessary processing units in the order indicated by the acquired execution information.

Abstract: An image processing apparatus includes: a noise position information obtaining unit that obtains noise position information regarding positions of noise in an image read by a reading unit that optically reads a surface of a medium, an image generating unit that generates a noise eliminated image that is obtained by eliminating a noise from the image, a pattern information obtaining unit that obtains pattern information indicating a pattern appearing on the surface of the medium from the noise eliminated image, and a pattern information registering unit that registers the pattern information obtained from areas set on the basis of the noise position information in the noise eliminated image.

Abstract: An image processing apparatus includes an acceptance unit that accepts an image of an original from an image reader having a conveying unit that conveys an original in sequence along a conveying path passing through a read position and an image read unit that reads the image of the original at the read position at read speed responsive to conveying speed of the original; an acquisition unit that acquires information concerning a stable read range in which the read speed in the conveying direction in the original becomes a stable state from storage in which the information is previously stored; and a registration unit that extracts feature information concerning a microscopic pattern that a surface of the original has from a registration area in the image of the original accepted by the acceptance unit and registers the feature information in association with position information concerning a position of the registration area.

Abstract: An image processing apparatus includes a read unit and a first correction unit. The read unit reads a document and generates multilevel image data from the document. The first correction unit corrects the multilevel image data contained in a first range predetermined as a color indicating a fluorescent color so as to move the multilevel image data contained in the first range to an outside of a print color range when at least a part of the multilevel image data is contained in the first range.

Abstract: An image processing apparatus includes: a noise position information obtaining unit that obtains noise position information regarding positions of noise in an image read by a reading unit that optically reads a surface of a medium, an image generating unit that generates a noise eliminated image that is obtained by eliminating a noise from the image, a pattern information obtaining unit that obtains pattern information indicating a pattern appearing on the surface of the medium from the noise eliminated image, and a pattern information registering unit that registers the pattern information obtained from areas set on the basis of the noise position information in the noise eliminated image.

Abstract: An image processing apparatus includes an acceptance unit that accepts an image of an original from an image reader having a conveying unit that conveys an original in sequence along a conveying path passing through a read position and an image read unit that reads the image of the original at the read position at read speed responsive to conveying speed of the original; an acquisition unit that acquires information concerning a stable read range in which the read speed in the conveying direction in the original becomes a stable state from storage in which the information is previously stored; and a registration unit that extracts feature information concerning a microscopic pattern that a surface of the original has from a registration area in the image of the original accepted by the acceptance unit and registers the feature information in association with position information concerning a position of the registration area.

Abstract: An image processing apparatus includes a read unit and a first correction unit. The read unit reads a document and generates multilevel image data from the document. The first correction unit corrects the multilevel image data contained in a first range predetermined as a color indicating a fluorescent color so as to move the multilevel image data contained in the first range to an outside of a print color range when at least a part of the multilevel image data is contained in the first range.

Abstract: A technique is provided for achieving reduction in size of an electronic device with a power amplifier circuit, while enhancing the performance of the electronic device. An RF power module for a mobile communication device includes first and second semiconductor chips, a passive component, and first and second integrated passive components, which are mounted over a wiring board. In the first semiconductor chip, MISFET elements constituting power amplifier circuits for the GSM 900 and for the DCS 1800 are formed, and a control circuit is also formed. In the first integrated passive component, a low pass filter circuit for the GSM 900 is formed, and in the second integrated passive component, a low pass filter circuit for the DCS 1800 is formed. In the second semiconductor chip, antenna switch circuits for the GSM 900 and DCS 1800 are formed. Over the upper surface of the wiring board, the second semiconductor chip is disposed next to the first semiconductor chip between the integrated passive components.

Abstract: A technique is provided for achieving reduction in size of an electronic device with a power amplifier circuit, while enhancing the performance of the electronic device. An RF power module for a mobile communication device includes first and second semiconductor chips, a passive component, and first and second integrated passive components, which are mounted over a wiring board. In the first semiconductor chip, MISFET elements constituting power amplifier circuits for the GSM 900 and for the DCS 1800 are formed, and a control circuit is also formed. In the first integrated passive component, a low pass filter circuit for the GSM 900 is formed, and in the second integrated passive component, a low pass filter circuit for the DCS 1800 is formed. In the second semiconductor chip, antenna switch circuits for the GSM 900 and DCS 1800 are formed. Over the upper surface of the wiring board, the second semiconductor chip is disposed next to the first semiconductor chip between the integrated passive components.

Abstract: A technique is provided for achieving reduction in size of an electronic device with a power amplifier circuit, while enhancing the performance of the electronic device. An RF power module for a mobile communication device includes first and second semiconductor chips, a passive component, and first and second integrated passive components, which are mounted over a wiring board. In the first semiconductor chip, MISFET elements constituting power amplifier circuits for the GSM 900 and for the DCS 1800 are formed, and a control circuit is also formed. In the first integrated passive component, a low pass filter circuit for the GSM 900 is formed, and in the second integrated passive component, a low pass filter circuit for the DCS 1800 is formed. In the second semiconductor chip, antenna switch circuits for the GSM 900 and DCS 1800 are formed. Over the upper surface of the wiring board, the second semiconductor chip is disposed next to the first semiconductor chip between the integrated passive components.

Abstract: A technique is provided for achieving reduction in size of an electronic device with a power amplifier circuit, while enhancing the performance of the electronic device. An RF power module for a mobile communication device includes first and second semiconductor chips, a passive component, and first and second integrated passive components, which are mounted over a wiring board. In the first semiconductor chip, MISFET elements constituting power amplifier circuits for the GSM 900 and for the DCS 1800 are formed, and a control circuit is also formed. In the first integrated passive component, a low pass filter circuit for the GSM 900 is formed, and in the second integrated passive component, a low pass filter circuit for the DCS 1800 is formed. In the second semiconductor chip, antenna switch circuits for the GSM 900 and DCS 1800 are formed. Over the upper surface of the wiring board, the second semiconductor chip is disposed next to the first semiconductor chip between the integrated passive components.