A sheet conveying device, which is included in an image forming apparatus, includes a pair of rollers configured to convey a sheet in a sheet conveyance passage, a detector configured to optically detect an attitude of the sheet, one of a rotation device to rotate the pair of rollers in a direction parallel to a plane of the sheet and a moving device to move the pair of rollers in a width direction, and a controller configured to correct the attitude of the pair of rollers at a time interval, based on a detection result obtained by the detector. The controller performs the correcting operation by setting, according to reflectance of the sheet, at least one of a light emission time of the detector, the time interval of the correcting operation, light emission intensity of the detector and a conveying speed of the sheet.

According to one embodiment, a tablet printing apparatus includes: a conveyor belt configured to convey a tablet; a print head configured to perform printing on the tablet conveyed by the conveyor belt; and a belt-position detector configured to detect the position of the conveyor belt in a direction crossing the conveying direction of the tablet in a horizontal plane. The conveyor belt includes a plurality of holes arranged in a row along the conveying direction of the tablet to hold the tablet. The belt-position detector includes an imaging device configured to capture an image of two or more of the holes; and an image processing device configured to detect the position of the conveyor belt in the crossing direction based on the image captured by the imaging device.

A card-type medium counting mechanism that calculates the number of card-type medium held so as to stack in a thickness direction, which is capable of improving the accuracy with which the number of card-type medium is counted, is provided. A card-type medium counting mechanism that calculates the number of card-type medium includes optical sensors that calculate the number of the card-type medium held so as to stack in a thickness direction of the card-type medium, a carriage to which the sensors are mounted, a circuit board that is fixed to the carriage, and a carriage driving mechanism that moves the carriage such that the sensors move along an end surface of the card-type medium. In this card-type medium counting mechanism, a processing circuit that processes an output signal from the sensors and outputs a digital signal is mounted to the circuit board.

A card-type medium counting mechanism that calculates the number of card-type medium held so as to stack in a thickness direction, which is capable of improving the accuracy with which the number of card-type medium is counted, is provided. A card-type medium counting mechanism that calculates the number of card-type medium includes optical sensors that calculate the number of the card-type medium held so as to stack in a thickness direction of the card-type medium, a carriage to which the sensors are mounted, a circuit board that is fixed to the carriage, and a carriage driving mechanism that moves the carriage such that the sensors move along an end surface of the card-type medium. In this card-type medium counting mechanism, a processing circuit that processes an output signal from the sensors and outputs a digital signal is mounted to the circuit board.

Examples of a system and method for identifying double feed documents are generally described. A method may include scanning a plurality of documents using a scanner in a first configuration and rejecting identified potential double feeds of checks from the plurality of checks in the first configuration. The method may include rescanning identified potential double feeds in a second configuration.

Examples of a system and method for identifying double feed documents are generally described. A method may include scanning a plurality of documents using a scanner in a first configuration and rejecting identified potential double feeds of checks from the plurality of checks in the first configuration. The method may include rescanning identified potential double feeds in a second configuration.

Provided are: an infrared control film in which an infrared light transmittance changes depending on the temperature, a tint in a front direction is excellent, and durability is excellent; and a window including the infrared control film. The infrared control film includes: a liquid crystal layer; and two substrates each of which includes at least one of an ultraviolet absorber or a colorant, in which the liquid crystal layer is disposed between the two substrates, the substrate includes 0.001 mass % or higher of the ultraviolet absorber or the colorant, a transmittance of the infrared control film at 0 C. with respect to an incidence ray at 1000 nm at a polar angle of 0 is higher than 70%, a transmittance of the infrared control film at 40 C. with respect to an incidence ray at 1000 nm at a polar angle of 0 is lower than 60%, and the following expressions are satisfied.

0.8<a1<1.2

0.8<b1<1.2 a1=(Transmittance of Incidence Ray at 450 nm at Polar Angle of 0)/(Transmittance of Incidence Ray at 550 nm at Polar Angle of 0) b1=(Transmittance of Incidence Ray at 550 nm at Polar Angle of 0)/(Transmittance of Incidence Ray at 700 nm at Polar Angle of 0)

A sheet handling apparatus (e.g., banknote insertion/discharge mechanism 20) includes a transport unit (e.g., first transport unit 30) configured to transport a sheet (e.g., banknote) in a first transport path 30a; and driving units 36m and 38m configured to move, along the width direction of the first transport path 30a, at least portions of guiding members 36 and 38 forming edges of the first transport path 30a.

A sheet handling apparatus (e.g., banknote insertion/discharge mechanism 20) includes a transport unit (e.g., first transport unit 30) configured to transport a sheet (e.g., banknote) in a first transport path 30a; and driving units 36m and 38m configured to move, along the width direction of the first transport path 30a, at least portions of guiding members 36 and 38 forming edges of the first transport path 30a.

A recording medium processing apparatus includes a housing that accommodates a processing unit, which is capable of processing a recording medium, and that has an internal space a part of which is open; an internal stacker that is disposed in the internal space and that allows the recording medium to be stacked thereon; a light source that is disposed in a part of the internal stacker and that emits a light beam toward a predetermined position on the internal stacker, the light beam notifying a user of a state in which the recording medium is or is not stacked on the internal stacker; and a reflection member that is disposed in a part of the internal stacker and that reflects the light beam from the light source laterally outward from the internal stacker.