Abstract: A speed reducing mechanism according to the present invention includes: a speed reducing unit for decelerating input rotation; an accelerating unit for accelerating rotation output from the speed reducing unit; and a brake unit for applying a braking force for braking the accelerating unit.

Abstract: In a printer, a controller controls a printing portion to execute a sample print to print on a sheet a plurality of barcodes. Each of the plurality of barcodes is represented by a received barcode data and printed in a different printing condition. The controller controls a reading portion to read the plurality of barcodes printed on the sheet in the sample print process to obtain a plurality of sets of scan data corresponding to respective ones of the plurality of barcodes. The controller performs a quality determination process to determine qualities of the plurality of printed barcodes based on the respective ones of the plurality of sets of scan data, and a printing condition setting process to set a printing condition based on the qualities determined in the quality determination process. The set printing condition is to be used to print a barcode by the printing portion.

Abstract: In a printer, the printing portion prints an image in a printing area of the sheet conveyed by a conveyer. The reader reads the image in the printing area printed by the printing portion. In a case that the printing portion is to print images in a plurality of printing areas of the sheet, the controller sets, as at least one target printing area, a part of the plurality of printing areas. The controller determining whether a printing result in each of the at least one target printing area satisfies a prescribed quality based on image data which is generated by reading the printing result by using the reader.

Abstract: There is provided a printing apparatus, including: a casing having a discharge opening and a conveyance route; a roller; a driving source; a printing head; a scanner disposed at a downstream side in a discharge direction; and a controller. The controller is configured to, depending on a printing preparation command, detect a leading-end position of a sheet; determine whether a printing surface of the sheet includes an error position that is not suitable for printing; and convey the sheet until the error position reaches the downstream position from the printing head. Then, the controller controls the printing head to execute printing of an image on the sheet.

Abstract: A communication apparatus includes: a first type communication unit configured to perform communication with a portable device in a near field communication mode; a display unit; and a control device configured to perform: a receiving process of receiving a radio wave for connection with the portable device in the near field communication mode, from the portable device through the first type communication unit; and a display process of controlling the display unit to display a notice for prompting a user to perform operation for permitting the portable device to transmit information to the communication apparatus in the near field communication mode, in response to receipt of the radio wave in the receiving process.

Abstract: In a printer, a controller controls a printing portion to execute a sample print to print on a sheet a plurality of barcodes. Each of the plurality of barcodes is represented by a received barcode data and printed in a different printing condition. The controller controls a reading portion to read the plurality of barcodes printed on the sheet in the sample print process to obtain a plurality of sets of scan data corresponding to respective ones of the plurality of barcodes. The controller performs a quality determination process to determine qualities of the plurality of printed barcodes based on the respective ones of the plurality of sets of scan data, and a printing condition setting process to set a printing condition based on the qualities determined in the quality determination process. The set printing condition is to be used to print a barcode by the printing portion.

Abstract: In a printer, the printing portion prints an image in a printing area of the sheet conveyed by a conveyer. The reader reads the image in the printing area printed by the printing portion. In a case that the printing portion is to print images in a plurality of printing areas of the sheet, the controller sets, as at least one target printing area, a part of the plurality of printing areas. The controller determining whether a printing result in each of the at least one target printing area satisfies a prescribed quality based on image data which is generated by reading the printing result by using the reader.

Abstract: An image processing apparatus, including a power source, an image engine, an interface to communicate with an external device and deliver power from the power source to the external device, and a controller, is provided. The controller is configured to detect connection of the external device to the interface; receive power information, including a value of regular operable power and a value of minimum operable power, from the external device; receive a job execution command; in response to receiving the job execution command, determine whether a first power value including the value of the regular operable power exceeds a value of power available for the external device during a predetermined operation by the image engine; and in response to a determination that the first power value exceeds the value of power available for the external device, control the power source to deliver the minimum operable power to the external device.

Abstract: An electronic device, including a power source, power-consuming devices, a USB interface, a command receiver, a memory, and a controller, is provided. The controller forecasts at least one of the power-consuming devices to be used in one of a plurality of time segments, calculates a level of total operation power being sum of power required by the forecasted at least one of the power-consuming devices for the time segment with reference to values of power stored in the memory, and determine a level of the power to be delivered to an external device connected to the USB interface in the time segment based on the level of the total operation power and the level of the power capacity in the power source. The controller controls the power source to deliver the determined level of the power to the external device through the USB interface during the time segment.

Abstract: This headrest guide 52 for holding a pillar 43 protruding from a headrest 4 is provided with cylindrical section 61 having formed therein a through-hole 63 which extends in a longitudinal direction and into which the pillar 43 is inserted. The cylindrical section 61 has a protrusion 64 provided on the inner peripheral surface of the through-hole 63 and coming in contact with the pillar 43 inserted in the through-hole 63. The protrusion 64 extends in the longitudinal direction of the cylindrical section 61, and the length of the protrusion 64 in the top-bottom direction is set to be greater than the length thereof in the left-right or front-rear direction. The configuration makes it possible to suppress the rattling of the headrest because of an increase in the region of contact with the pillar inserted in the through-hole.

Abstract: A communication apparatus includes: a first type communication unit configured to perform communication with a portable device in a near field communication mode; a display unit; and a control device configured to perform: a receiving process of receiving a radio wave for connection with the portable device in the near field communication mode, from the portable device through the first type communication unit; and a display process of controlling the display unit to display a notice for prompting a user to perform operation for permitting the portable device to transmit information to the communication apparatus in the near field communication mode, in response to receipt of the radio wave in the receiving process.

Abstract: An imaging device installed inside a windshield of a vehicle, capturing images from ahead of the vehicle is provided. The imaging device includes a housing, a lens, an imaging device and a processing board. The housing includes a first portion, facing the windshield, and a second portion located opposite to the first portion. The first portion has a first outer surface as an outer surface thereof, and the second portion has a second outer surface as an outer surface thereof. The first outer surface has a light reflectance which is larger than a light reflectance of the second outer surface. The processing board is provided in the housing, and the processing circuit is provided on the processing board, facing the second portion only.

Abstract: An in-vehicle communication system includes communication lines connecting ECUs together in the form of a daisy chain, has a maximum transferable data length of 64 bytes or more, and selects a speed of data transfer from one of a plurality of transmission speeds more than or equal to 2 Mbps. Each ECU includes a substrate-side connector with surface-mounted connector pins. The connector pins include a first connector pin pair and a second connector pin pair. The first connector pin pair has leads whose lengths equal to each other. The second connector pin pair has leads whose lengths are equal to each other and different from those of the second connector pin pair. This minimizes the distortion of waveform of signals when the signals are transmitted at a speed higher than that in a high-speed CAN, thereby enables the number of nodes to be increased.

Abstract: A communication apparatus includes: a first type communication unit configured to perform communication with a portable device in a near field communication mode; a display unit; and a control device configured to perform: a receiving process of receiving a radio wave for connection with the portable device in the near field communication mode, from the portable device through the first type communication unit; and a display process of controlling the display unit to display a notice for prompting a user to perform operation for permitting the portable device to transmit information to the communication apparatus in the near field communication mode, in response to receipt of the radio wave in the receiving process.

Abstract: A graft copolymer includes: an inner layer made of a hard polymer (I) obtained by polymerizing a monomer mixture including 40 to 100 wt % of a methacrylate ester 0 to 15 wt % of an aromatic vinyl monomer, and 0 to 45 wt % of another copolymerizable monomer and 0.01 to 10 parts by weight of a polyfunctional monomer; an intermediate layer made of a soft polymer (II) obtained by polymerizing a monomer mixture including 60 to 100 wt % of an acrylate ester and 0 to 40 wt % of another copolymerizable monomer, 0.01 to 5 parts by weight of allyl (meth)acrylate, and a di(meth)acrylic compound; and an outer layer made of a hard polymer (III) obtained by polymerizing a monomer mixture including 40 to 100 wt % of a methacrylate ester and 60 to 0 wt % of another copolymerizable monomer and 0 to 10 parts by weight of a polyfunctional monomer.

Abstract: There is provided a printing apparatus, including: a casing having a discharge opening and a conveyance route; a roller; a driving source; a printing head; a scanner disposed at a downstream side in a discharge direction; and a controller. The controller is configured to, depending on a printing preparation command, detect a leading-end position of a sheet; determine whether a printing surface of the sheet includes an error position that is not suitable for printing; and convey the sheet until the error position reaches the downstream position from the printing head. Then, the controller controls the printing head to execute printing of an image on the sheet.

Abstract: This headrest guide 52 for holding a pillar 43 protruding from a headrest 4 is provided with cylindrical section 61 having formed therein a through-hole 63 which extends in a longitudinal direction and into which the pillar 43 is inserted. The cylindrical section 61 has a protrusion 64 provided on the inner peripheral surface of the through-hole 63 and coming in contact with the pillar 43 inserted in the through-hole 63. The protrusion 64 extends in the longitudinal direction of the cylindrical section 61, and the length of the protrusion 64 in the top-bottom direction is set to be greater than the length thereof in the left-right or front-rear direction. The configuration makes it possible to suppress the rattling of the headrest because of an increase in the region of contact with the pillar inserted in the through-hole.

Abstract: In an imaging apparatus for mounting to a windshield of a vehicle, a cover includes a bottom wall arranged to cover the opening bottom wall of a camera-module case member and the opening bottom wall of a board case member, and a rear wall arranged to cover the opening rear wall of the camera-module case member. At least one of the bottom wall and the rear wall has fastening portions at which the case and the cover are closely fastened to each other. The fastening portions include at least first and second adjacent fastening portions having an interval therebetween. The interval is set to be equal to or less than half of a wavelength of a signal having a predetermined maximum frequency. The signal having the maximum frequency is used by at least one device installable in the vehicle or the signal is expected to be received by the processing board as noise.

Abstract: An image processing apparatus includes a power source, an image processing device, an external interface connectable with an external device and deliverable power from the power source to the connected external device, a power-consuming device driven by power delivered from the power source, and a controller. The controller determines whether a job is received, determines whether total power being a sum of job executable power and delivering power being delivered to the external device exceeds deliverable power being maximum power distributable from the power source, reduces driving power to be delivered to the power-consuming device based on relevance of the power-consuming device to the job, and executes the job with the driving power being reduced.

Abstract: A communication apparatus includes: a first type communication unit configured to perform communication with a portable device in a near field communication mode; a display unit; and a control device configured to perform: a receiving process of receiving a radio wave for connection with the portable device in the near field communication mode, from the portable device through the first type communication unit; and a display process of controlling the display unit to display a notice for prompting a user to perform operation for permitting the portable device to transmit information to the communication apparatus in the near field communication mode, in response to receipt of the radio wave in the receiving process.