Abstract: A tape printer includes a cassette mounting portion, a cutting mechanism, a discharge outlet, a guide surface, a first projecting portion, and a second projecting portion. The cutting mechanism is a hinged type of cutting mechanism, and the hinge of the cutting mechanism is positioned in a side of the tape in a width direction. The guide surface guides the label toward the discharge outlet. The first projecting portion is provided in an area covered by a first projected image that is an image of a minimum width tape projected onto the guide surface, being projected in a position to which the minimum width tape has been conveyed toward the discharge outlet by a minimum length of the label. The second projecting portion is provided within the guide surface to the outside of the first projected image and on the opposite side of the first projected image from the hinge.

Abstract: A roll-fed duplex thermal printing system, comprising a supply roll of receiver media, a printing path, a turning mechanism, a diverter and a cutter positioned between the printing path and the turning mechanism. When the diverter is in the first position thermal imaging receiver is directed from the supply roll into the printing path, and when the diverter is in the second position the thermal imaging receiver is directed from the printing path into the turning mechanism. During a printing operation, the diverter is positioned in the first position and the receiver media is fed into the printing path where a first side image is printed. The diverter is then repositioned the receiver media is fed into the turning mechanism after being cut. The receiver media is fed back into the printing path where a second side image is printed.

Abstract: A tape printer includes a cassette mounting portion, a cutting mechanism, a discharge outlet, a guide surface, a first projecting portion, and a second projecting portion. The cutting mechanism is a hinged type of cutting mechanism, and the hinge of the cutting mechanism is positioned in a side of the tape in a width direction. The guide surface guides the label toward the discharge outlet. The first projecting portion is provided in an area covered by a first projected image that is an image of a minimum width tape projected onto the guide surface, being projected in a position to which the minimum width tape has been conveyed toward the discharge outlet by a minimum length of the label. The second projecting portion is provided within the guide surface to the outside of the first projected image and on the opposite side of the first projected image from the hinge.

Abstract: An apparatus and method for automatically calibrating a media sensor configured to detect advancing print media in a printing device. In some embodiments, the apparatus selects a first light intensity level and a second light intensity level greater than the first light intensity level. A light source unit, such as a light emitting diode or laser diode is activated to emit light at the second light intensity level. The light passes though print media, for example, a roll of self-adhesive labels, that is advanced along a print path of the printing device. The amount of light transmitted through the print media is measured as the print media advances. If the measured light increases, the light source unit is reactivated to emit light at the first light intensity level. In some embodiments, the apparatus identifies whether print media has changed or an out-of-stock condition exists.

Abstract: A thermal transfer printer comprises a print head drive mechanism that is configured to reciprocally move a print head parallel to movement of a carrier ribbon past the print head. A controller is configured to control the print head drive mechanism to move the print head in a first direction along the carrier ribbon to transfer ink material from the carrier ribbon to a substrate to print a first portion of an image on a first area of the substrate. The controller is also configured to control movement of the print head in a second direction opposite to the first direction as the carrier ribbon and substrate are also moved in the second direction to position the print head relative to the carrier ribbon so that a second portion of the image is printed on a second are of the substrate adjacent to the first area of the substrate.

Abstract: A first printhead that prints on one side of the paper, a second printhead that prints on the other side of the paper, and a cutter are disposed to the paper conveyance path with a specific gap therebetween approaching the paper exit for the paper, and a conveyance unit that conveys the paper through the conveyance path in a device that prints duplex receipts. Based on reception of a transaction end statement, the printer prints part of the transaction information by the first printhead; prints the remaining part of the transaction information by the second printhead; prints store information, the length of which fits between the cutter and the first printhead, by the first printhead after printing the transaction information; and then cuts the paper by the cutter at a position between the area where the transaction information was printed and the area where the store information was printed.

Abstract: An information processing apparatus used in connection with a tape printing apparatus has a tape information acquisition section which acquires from the tape printing apparatus tape information about a tape mounted therein, a new standardized tape discrimination section which discriminates whether a new standardized tape having a standard different from an existing standard has been mounted or not based on the tape information, a printing parameter acquisition section which acquires a printing parameter corresponding to the new standardized tape in a case that it is discriminated that the new standardized tape has been mounted, and a data transmission section which transmits the printing parameter acquired by the printing parameter acquisition section to the tape printing apparatus.

Abstract: A roll-fed duplex thermal printing system, comprising a supply roll of receiver media, a printing path, a reversing path, a pivotable diverter and a cutter positioned between the supply roll and the reversing path. When the diverter is in a first position the receiver media is directed from the supply roll, when the diverter is in a second position the receiver media is directed from the supply roll into the reversing path, and when the diverter is in the third position the receiver media is directed from the reversing path into the printing path. During a printing operation, the diverter is sequentially repositioned to feed the receiver media into the printing path where a first side image is printed, into the reversing path where it is cut, and into the printing path again where a second side image is printed.

Abstract: A tape cassette that includes a housing having a top surface, a bottom surface, a front wall, a tape feed exit on the front wall, and an arm portion. The arm portion partially surrounds an opening extending from the top surface to the bottom surface behind the front wall, and a tape feed path passes through the arm portion from an upstream portion of the arm portion to a downstream end of the arm portion. The tape cassette also includes a tape at least partially in the housing and configured to be fed along the tape feed path extending to the tape feed exit. The tape cassette also includes a first and second aperture formed on the front wall. The first and second aperture are positioned downstream of an upstream end of the opening, and upstream of the downstream end of the arm portion.

Abstract: A device is provided for loading a roll, including: a housing including a chamber defining an open cavity; and a roll support. The roll is rotatably mounted in the cavity.

Abstract: In accordance with one embodiment, a printer apparatus comprises a first paper conveyance path configured to convey a first paper which has printing surfaces on both sides, that is, a first surface and a second surface serving as a back surface of the first surface; a first printing section configured to carry out printing on the first surface; a second printing section configured at the downstream side of the first printing section in a paper conveyance direction to carry out printing on the second surface; and a second paper conveyance path configured to merge with the first paper conveyance path between the first printing section and the second printing section, and convey a second paper which has a printing surface on either of a first surface and a second surface serving as a back surface of the first surface.

Abstract: A method of printing on a recording medium using a printhead having a printhead face that includes an array of marking elements, the method includes advancing the recording medium along a medium advance direction toward a printing region; detecting with a sensor whether a portion of the recording medium is positioned such that it would be in a collision path with the printhead face if the recording medium is advanced into the printing region; and advancing the recording medium into the printing region for printing if it is detected that the recording medium would not be in a collision path with the printhead face.

Abstract: A portable thermal printer includes a housing and an anti-skew unit. The housing is provided with a thermal printer head and a platen roller, and is configured to convey a paper between the thermal printer head and the platen roller. The anti-skew unit inside the housing is configured to contact both side edges of the paper in a width direction to prevent the paper, which is being conveyed, from skewing, and the setting of the width of the paper by the anti-skew unit is configured to be adjustable from outside the housing.

Abstract: A printer with excellent anti-static protection removes static electricity from the paper guide and recording paper and protects a paper detector from static. A printer 1 has a plastic frame 19 disposed facing the paper path A, and a stainless steel anti-static guard member 20 attached to the plastic frame 19 on one edge in the paper width direction X. The anti-static guard member 20 includes a protective plate 21 that shields the area around the detection unit 18a of a paper detector 18 from the paper path A; a paper guide 22 protruding from a side edge of the protective plate 21 to the paper path A side; and a ground part 24 connected to the protective plate 21 through a connecting part 23. The connecting part 23 and ground part 24 form a flat spring pressed against a case-side ground member 25.

Abstract: A printing method wherein a position of a receiver media in a printer is determined to be nearer to one of two thermal printheads at an end of a print job. A next print job is started using either one of the two thermal printheads depending on which one was determined to be nearer the receiving media.

Abstract: A medium processing apparatus may include a medium conveying passage; a thermal head; a head holding part; and a moving mechanism structured to move the thermal head and the head holding part between a contact position and a retreated position. The head holding part may include a head holding member; a head support shaft structured to support the thermal head; and a pressing mechanism structured to press the thermal head toward the head holding member in the conveyance direction of the medium.

Abstract: A method, apparatus, and computer program product are described herein for controlling a printing device. In an example embodiment, a print line is divided into frames and frame dot states are determined based on neighboring frame dot states. Maximum motor speeds of the printing device may be adjusted so that actual motor speeds change gradually during printing. The print engine may detect a printhead type by sending a signal to the printhead and receiving a response.

Abstract: A printing system comprising two thermal printheads and an apparatus for smoothing a side of thermal media which may be compromised by an aggressive drive roller design. The smoothing apparatus in one embodiment is a heater which optionally comprises a heated roller for contacting and smoothing the receiver media.

Abstract: A printing apparatus includes a platen roller that configured to convey a sheet, a printing head disposed opposite the platen roller, a cutter configured to cut the sheet conveyed from the platen roller, a sheet guide disposed so as to guide a portion of the sheet that has passed the cutter, a feed roller configured to rotate and convey the sheet from the cutter between the feed roller and the sheet guide and stop rotating when a portion of the sheet is nipped between the feed roller and the sheet guide, and an adjusting mechanism configured to set a distance between the sheet guide and the feed roller.

Abstract: A printer includes a head for performing printing, a roll element on which a print medium is wound, a first conveying mechanism for rotating the roll element, an auxiliary roller positioned between the head and the roll, a second conveying mechanism for driving the auxiliary roller, a nip roller constituting a pair with the auxiliary roller to hold the medium on both sides, a nip roller drive mechanism for driving the nip roller and creating a state in which the medium is held on both sides and a state in which the medium is not held on both sides, and a controller for setting the nip roller to a first state in which the roll element is rotated in a forward direction to convey the print medium, and a second state in which the roll element is rotated in a reverse direction to convey the print medium.

Abstract: A printer including a supply roll of receiver media and a plurality of rollers to feed the receiver media through the printer. Means for maintaining a preselected tension of the receiver media between the supply roll and a pair of the plurality of rollers includes a motor with a torque limiter. The motor can be attached to the supply roll or to an optional pair of rollers adjacent the supply roll. A capstan roller having a high traction, non-marking surface is used in conjunction with the tension control.

Abstract: A printer with excellent anti-static protection removes static electricity from the paper guide and recording paper and protects a paper detector from static. A printer 1 has a plastic frame 19 disposed facing the paper path A, and a stainless steel anti-static guard member 20 attached to the plastic frame 19 on one edge in the paper width direction X. The anti-static guard member 20 includes a protective plate 21 that shields the area around the detection unit 18a of a paper detector 18 from the paper path A; a paper guide 22 protruding from a side edge of the protective plate 21 to the paper path A side; and a ground part 24 connected to the protective plate 21 through a connecting part 23. The connecting part 23 and ground part 24 form a flat spring pressed against a case-side ground member 25.

Abstract: A portable thermal printer includes a housing and an anti-skew unit. The housing is provided with a thermal printer head and a platen roller, and is configured to convey a paper between the thermal printer head and the platen roller. The anti-skew unit inside the housing is configured to contact both side edges of the paper in a width direction to prevent the paper, which is being conveyed, from skewing, and the setting of the width of the paper by the anti-skew unit is configured to be adjustable from outside the housing.

Abstract: There is provided a device detecting curling of a sheet, the device including a first guide member carrying the sheet; a second guide member including a carriage path that is broader than the carriage path of the first guide member and accepting the curling of the sheet; and sensors with detection ranges into which a portion of the curling of the sheet enters, in the carriage path of the second guide member.

Abstract: A print station system (1) having a drive-stepper motor (2), platen rollers (3, 4) in operative communication with the drive-stepper motor (2), a pinch roller (10) in operative communication with the drive-stepper motor (2), a top-of-form sensor (11) located between the platen roller (3, 4) and the pinch roller (10), a rocker arm (12) in operative communication with the platen roller (3, 4) and the pinch roller (10), and a printhead assembly (5), a media guide (12a, 12b). A radio-frequency identification antenna (16) or a receptacle (15) for holding same may be located between the platen roller (3, 4) and the pinch roller (10).

Abstract: An image erasing apparatus includes: a paper feeding tray configured to feed a recording medium; a sensor group including a double-feed detection sensor configured to detect double feed of the recording medium and a media sensor configured to detect the thickness of the recording medium; a recording-medium collecting device, a collection box, or a discharge box configured to collect the recording medium; and a recording-medium conveying device connecting the paper feeding tray, the sensor group, and the recording-medium collecting device, the collection box, or the discharge box on a straight line.

Abstract: The present application is directed to systems and methods for print alignment by a continuous feed printer. A sensor of a printer detects a first line of a pattern on a non-printing side of a printing medium, the pattern comprising two non-parallel lines separated by a predetermined distance at a predetermined position of the printing medium. The printer advances the printing medium a first distance, and the sensor detects a second line of the pattern. The printer identifies a horizontal offset of the printing medium from an expected location of the predetermined position proportional to the difference between the first distance and the predetermined distance.

Abstract: A printer includes a feeding portion, a printing portion and a processor. The feeding portion is configured to feed a printing medium in an auxiliary scanning direction. The printing portion includes a plurality of heating elements arrayed in a main scanning direction and configured to perform printing of one line at a time on the printing medium. The processor is configured to set, based on a first speed, a number of lines for each of which a number of ON dots is specified, specify numbers of ON dots for the set number of lines, set a second speed based on a maximum value among the specified numbers of ON dots, control the feeding portion such that the feed speed is changed from the first speed to the second speed, and control the printing portion such that the printing is performed sequentially one line at a time.

Abstract: A portable thermal printer includes a housing and an anti-skew unit. The housing is provided with a thermal printer head and a platen roller, and is configured to convey a paper between the thermal printer head and the platen roller. The anti-skew unit inside the housing is configured to contact both side edges of the paper in a width direction to prevent the paper, which is being conveyed, from skewing, and the setting of the width of the paper by the anti-skew unit is configured to be adjustable from outside the housing.

Abstract: A thermal dye image receiver element has a substrate comprising a voided compliant layer and metalized layer. Disposed on the metalized layer is an opacifying layer that includes an opacifying agent and a dye receiving layer. This thermal dye image receiver element can be a duplex element with image receiving layers on both sides of the substrate, and it can be used in association with a thermal donor element to provide a thermal image on either or opposing sides of the receiver element. The metalized layer provides increased specular reflectance under resulting thermal dye images.

Abstract: A roll-fed duplex thermal printing system, comprising a supply roll of receiver media, a printing path, a turning mechanism, a diverter and a cutter positioned between the printing path and the turning mechanism. When the diverter is in the first position thermal imaging receiver is directed from the supply roll into the printing path, and when the diverter is in the second position the thermal imaging receiver is directed from the printing path into the turning mechanism. During a printing operation, the diverter is positioned in the first position and the receiver media is fed into the printing path where a first side image is printed. The diverter is then repositioned the receiver media is fed into the turning mechanism after being cut. The receiver media is fed back into the printing path where a second side image is printed.

Abstract: A printing apparatus is supplied capable of printing without the occurrence of the slack of copying paper. The printing apparatus comprises a paper cut mechanism for cutting successive paper printed in a print mechanism; a first conveying section which holds and sends out successive paper to the print mechanism; a second conveying section which holds and sends out the successive paper that is printed out in the print mechanism and is sent out from the first conveying section to the paper cut mechanism; and a controlling section which returns a tip of the successive paper after being cut by the paper cut mechanism to between the print mechanism and the first conveying section.

Abstract: The disclosure discloses a printer includes a main-body case, a housing portion configured to house substantially sheet-shaped media to be printed as a print object therein, a pickup roller configured to pick up and feed the medium to be printed toward a first direction along a surface direction of the medium, a platen roller configured to feed the medium to be printed, a print head configured to perform desired printing on the medium to be printed being fed, a paper guide configured to reverse the medium to be printed being fed toward a second direction in opposite to the first direction, the paper guide including at least one arc-shaped surface portion provided along the outer peripheral surface of the platen roller in an opposed manner thereto, and a coupling member that couples between the paper guide and a rotation shaft of the platen roller.

Abstract: A printer includes a conveyor roller for conveying a long printing tape having an adhesive but no release paper on a back surface thereof, a printing mechanism for performing printing on the printing tape conveyed, a drive unit for rotationally driving the conveyor roller, and a control unit for controlling the drive unit so that a rotational speed thereof becomes a constant speed slower than a standard speed when the printing tape is initially conveyed and then becomes the standard speed after it is conveyed a contact length of the conveyor roller with the printing tape. Thus, a risk can be prevented of a tape jam occurring in the printer due to the tape member remaining sticking to the conveyor roller when it is conveyed for the next printing because the tape member with the adhesive has been left stationary long in the printer.

Abstract: A thermal printer includes a first thermal head, a first platen roller, first biasing means, a second thermal head, a second platen roller, and second biasing means. The first thermal head, the first platen roller, the first biasing means are in contact with a heat-sensitive layer of thermal recording paper. The second thermal head, the second platen roller, and the second biasing means are in contact with a heat-sensitive layer of the thermal recording paper. The second thermal head is arranged on the upstream side of the first thermal head in a paper feed direction. A paper feed speed of the first platen roller to the thermal recording paper is larger than a paper feed speed of the second platen roller. The first platen roller is in contact with the thermal recording paper while being more slippery compared with the second platen roller.

Abstract: A multi-channel image is printed on a web receiver by a plurality of printing modules. The receiver is entrained around a take-up roll on a movable transport. During printing, the transport moves past the printing modules while the take-up roll holds the receiver in position with respect to the transport, and then the transport comes to a stop and the take-up roll draws the receiver across the transport. A cutter downstream of the take-up roll cuts off the printed portion of the web receiver to provide a printed sheet.

Abstract: A printer detects black marks BM formed at a constant interval along the length of recording paper by a detector disposed to the recording paper conveyance path at a position upstream from a printing position, positions the recording paper to a printing start position for printing on the recording paper based on the detection results from the detector, and positions the recording paper to a cutting position downstream from the printing position in order to cut the recording paper based on detection of a black mark BM after printing ends. When a power-off command is input, the printer starts conveying the recording paper forward, stops conveying the recording paper when a black mark BM is detected by the detector after conveyance starts, and then turns the power off.

Abstract: A printer includes a thermal head configured to print information on thermal paper, a platen roller configured to press the thermal paper against the thermal head and a paper feed unit configured to convey the thermal paper. The printer further includes a control unit configured to control the paper feed unit to convey a leading edge of the thermal paper to a print waiting position between the thermal head and the platen roller, and also configured to control the paper feed unit to move the leading edge of the thermal paper from the print waiting position to a retracted position upstream the print waiting position.

Abstract: A roll-fed duplex thermal printing system, comprising a supply roll of receiver media, a printing path, a reversing path, a diverter and a cutter positioned between the supply roll and the reversing path. When the diverter is in a first position the receiver media is directed from the supply roll or the reversing path into the printing path. When the diverter is in a second position the receiver media is directed from the supply roll into the reversing path. During a printing operation, the diverter is positioned in the first position and the receiver media is fed into the printing path where a first side image is printed. The diverter is then repositioned the receiver media is fed into the reversing path where it is cut. The diverter is then repositioned again and the receiver media is fed into the printing path where a second side image is printed.

Abstract: A roll-fed duplex thermal printing system, comprising a supply roll of receiver media, a printing path, a reversing path, a diverter and a cutter positioned between the diverter and the reversing path. When the diverter is in a first position the receiver media is directed from the supply roll or the reversing path into the printing path. When the diverter is in a second position the receiver media is directed from the supply roll into the reversing path. During a printing operation, the diverter is positioned in the first position and the receiver media is fed into the printing path where a first side image is printed. The diverter is then repositioned the receiver media is fed into the reversing path where it is cut. The diverter is then repositioned again and the receiver media is fed into the printing path where a second side image is printed.

Abstract: An apparatus comprises an accommodation unit which accommodates a continuous printing sheet; a conveyance unit which conveys the printing sheet; a printing unit which performs image forming processing on the conveyed printing sheet; a cutting unit which cuts the printing sheet after completion of the image forming processing; and a processing unit which executes, when a printing sheet remaining on a conveyance path is detected, processing for removing the remaining printing sheet, the processing unit controls the conveyance unit to convey the printing sheet to detect a leading end, compares a first distance from the leading end to a portion located at a curl correction unit with a second distance from the leading end, which distance is required for image forming processing set, and sets a larger distance as a cutting position of the remaining printing sheet.

Abstract: According to one embodiment, the present disclosure provides a thermal printer having a feeding motor that rotates the feeding shaft forward/backward depending on the winding configuration of the ink ribbon attached to the printer, an input part allowing the winding direction of the ink ribbon to be designated, a thermal head for transferring ink from the ribbon to a print medium, a wind-up motor that rotates the wind-up shaft of the ink ribbon after printing, a storage part for storing target rotating quantities for the wind-up motor and other target rotating quantities for the feeding motor in each winding direction, and a control part that extracts a target rotating quantity for the direction of tension for an ink-surface-outward winding ink ribbon or an ink-surface-inward winding ink ribbon and controls each motor.

Abstract: A portable thermal printer includes a housing and an anti-skew unit. The housing is provided with a thermal printer head and a platen roller, and is configured to convey a paper between the thermal printer head and the platen roller. The anti-skew unit inside the housing is configured to contact both side edges of the paper in a width direction to prevent the paper, which is being conveyed, from skewing, and the setting of the width of the paper by the anti-skew unit is configured to be adjustable from outside the housing.

Abstract: A method and apparatus for determining the amount of media on an elevator that supports a media stack in an image production device is disclosed. The method may include sensing one or more identification mark on a segmented positional reference scale, determining the elevator's position based on the sensed one or more identification mark, and determining an amount of media on the elevator based on the determined elevator position.

Abstract: A printing system comprising two thermal printheads and an apparatus for smoothing a side of thermal media which may be compromised by an aggressive drive roller design. The smoothing apparatus in one embodiment is a heater which optionally comprises a heated roller for contacting and smoothing the receiver media.

Abstract: According to one embodiment, a portable thermal printer is disclosed. The portable thermal printer comprises: a housing provided with a thermal printer head; a cover openably attached to an opening portion of the housing by a pivotal shaft, the cover being provided with a platen roller arranged to make contact with the thermal printer head when the opening portion of the housing is closed by the cover; and a drive power source provided within the housing. The drive power source, the pivotal shaft and the platen roller are connected by a belt mechanism.

Abstract: A printer detects black marks BM formed at a constant interval along the length of recording paper by a detector disposed to the recording paper conveyance path at a position upstream from a printing position, positions the recording paper to a printing start position for printing on the recording paper based on the detection results from the detector, and positions the recording paper to a cutting position downstream from the printing position in order to cut the recording paper based on detection of a black mark BM after printing ends. When a power-off command is input, the printer starts conveying the recording paper forward, stops conveying the recording paper when a black mark BM is detected by the detector after conveyance starts, and then turns the power off.

Abstract: A thermal printer includes a first thermal head, a first platen roller, first biasing means, a second thermal head, a second platen roller, and second biasing means. The first thermal head, the first platen roller, the first biasing means are in contact with a heat-sensitive layer of thermal recording paper. The second thermal head, the second platen roller, and the second biasing means are in contact with a heat-sensitive layer of the thermal recording paper. The second thermal head is arranged on the upstream side of the first thermal head in a paper feed direction. A paper feed speed of the first platen roller to the thermal recording paper is larger than a paper feed speed of the second platen roller. The first platen roller is in contact with the thermal recording paper while being more slippery compared with the second platen roller.

Abstract: In connection with a printer, a platen roller is configured to transport a recording medium. A print head has a head body portion having a printing portion which performs printing on a recording medium and facing the platen roller. A supporting mechanism supports the head body portion, presses the head body portion against the platen roller and moves the head body portion by rotation of the platen roller. When the platen roller rotates in a second direction opposite the first direction, a contact position of the head body portion with respect to the platen roller is shifted while maintaining the head body portion pressed against the platen roller.

Abstract: A printing apparatus including a printhead for transferring ink from a ribbon to a substrate to be printed, a print roller for guiding the substrate to be printed, a peel-off roller for separating the ribbon from the substrate, downstream of the printhead, wherein a peel-off angle is subtended between a portion of ribbon which, when the printing apparatus is in use, extends between the printhead and the peel-off roller and a tangent to the print roller at a contact point on the circumference of the print roller, and a printhead angle is subtended between a part of the printhead which transfers ink from the ribbon to the substrate and a radius of the print roller at the contact point, and wherein the printhead angle is adjustable in accordance with the speed of the ribbon relative to the printing apparatus.