According to an embodiment, a printer includes a drop portion that catches, in a case where a diameter of a roll of paper stored in a holder becomes small, the roll of paper that falls from the holder. The printer further includes a plurality of support rollers that are arranged so as to sandwich an inlet of the drop portion and rotatably support the roll of paper PR stored in the holder. At least one of the plurality of support rollers is a short-width roller whose width in an axial direction of a shaft is shorter than a paper width of the roll of paper PR, and a void is provided at a non-shaft arrangement part provided at an extension portion of the short-width roller in the axial direction.

A medium flattening method, when a medium is transported by being adhered to an adhesive layer which is on a surface of a transport belt, includes detecting a presence or absence of floating being generated in the medium on the transport belt using a sensor, executing a process for flattening to flatten the floating in the medium in the case where the floating exists, and transporting the medium, where the floating is eliminated using the process for the flattening, to a liquid discharge region of a liquid discharge section.

A printing apparatus including a set section on which a printing medium is set, a winding unit configured to wind, the printing medium transported from the set section, a head configured to discharge an ink onto an image forming surface of the printing medium being transported, thereby forming an image, and a drying chamber formed downstream of the head in a transport direction and downward of the head, the drying chamber being configured to dry the ink discharged to the printing medium, wherein the drying chamber is provided with an endless belt made of metal and configured to transport the printing medium while being in contact with an image non-forming surface on an opposite side of the printing medium from the image forming surface, and a plurality of rollers over which the endless belt is stretched, the plurality of rollers being configured to cause the endless belt to rotate.

An embodiment of a printer according to the present invention includes: a container configured to contain a roll body into which a belt-shaped print medium is wound; a frame including a first opening, the frame arranged to be a portion of the container; and a body case provided outside the frame and arranged to be a portion of a bottom surface of the container, the body case including a first protrusion part protruding toward the first opening.

Provided is a liquid ejecting apparatus that includes a support unit configured to support a medium, an ejection unit configured to eject a liquid onto the medium that is transported while being supported by the support unit, and a plate-like pressing unit configured to press, against the support unit, an end portion in a width direction intersecting with a transport direction of the medium being transported in a region opposing the ejection unit. The pressing unit includes regions with different distances therefrom to the support unit via the medium.

Various embodiments illustrated herein disclose a printing apparatus comprising a media supply spool configured to supply print media along a media path. The printing apparatus further comprises a first media sensor positioned in a first plane in the printing apparatus. Further, the printing apparatus comprises a second media sensor positioned in a second plane in the printing apparatus. Additionally, the printing apparatus comprises a first media guide defining a section of the media path, wherein extremities of the first media guide are positioned to be at a negative offset from the second plane.

A printer includes a recording head, a belt, a scale unit, a reading head, a gripping unit. The belt includes a first surface configured to support a medium and a second surface opposite to the first surface. The gripping unit includes a first abutting portion that comes into contact with the first surface, and a second abutting portion that comes into contact with the second surface. The gripping unit can be changed between a gripping state of moving along with the glue belt while gripping the glue belt, and a release state of being separated from the glue belt. When the gripping unit is in the release state, the second abutting portion is separated from the second surface in conjunction with the first abutting portion being separated from the first surface.

A process for printing a coagulating ink composition directly on a substrate being supported by an adhesive surface, effected by cleaning the adhesive surface with a cleaning composition capable of removing residues of coagulated ink composition from the adhesive surface is provided, as well as a system for carrying out the process and a formulation for the cleaning composition. The cleaning composition comprises a weak organic base (preferably EDTA salts) and is characterized by a pH level of at least 7.5.

A printer includes: a printing head configured to perform printing on a medium; a conveyor configured to convey the medium in a conveying direction; a cutter configured to cut the medium to provide a segmented medium; a discharge roller; a counter roller configured to nip the medium in cooperation with the discharge roller; a driver configured to rotate the discharge roller in a discharging direction; and a controller configured to perform: (a) controlling the printing head and the conveyor to perform the first print control based on a first print instruction to perform printing on the medium; (b) driving the driver to stop rotation of the discharge roller with the medium nipped between the discharge roller and the counter roller; and (c) driving, when a second print control subsequent to the first print control is allowed, the driver to rotate the discharge roller in the discharging direction.

A conveyance device includes a conveyance path on which a medium is carried; a first detector that detects the medium on the conveyance path and generates first property data; and a hardware processor that acquires the first property data and second property data generated by detecting the medium disposed at a position away from the conveyance path.