The present disclosure relates to the technical field of gummed tape dispensers, and more particularly relates to an electric water activated gummed paper tape dispenser. The dispenser includes a box body, wherein a paper feeding bin, a paper pushing mechanism, a dispensing mechanism, and a paper wetting mechanism are independently arranged according to functions in sequence in the box body, so that the overall structure is simpler, which is conducive to subsequent maintenance. In addition, one side of the box body is fixedly connected with an outer hood, a control system is arranged in the outer hood, and the control system is a PLC all-in-one machine. A paper pushing motor of the paper pushing mechanism and a dispensing motor of the dispensing mechanism are both full-digital subdivision stepper driven motors and are controlled by the control system, which is used as a core electronic control part of the device. During working, the control system controls operation of the paper pushing motor of the paper pushing mechanism so as to accurately control a pushing length of a gummed tape, and controls the operation of the dispensing motor of the dispensing mechanism so as to accurately control the dispensing amount of the gummed tape, thereby effectively ensuring the quality of the dispensed gummed tape and then improving the dispensing quality and efficiency.

A medium processing apparatus includes a liquid applier, a crimper, a stapler, and circuitry. The liquid applier applies liquid to a liquid application position of a medium. The crimper presses and deforms at least a part to which the liquid is applied by the liquid applier, to bind a plurality of media including the medium to which the liquid is applied. The stapler performs stapling with a staple on a medium bundle in which the plurality of media is bound by the crimper. The circuitry controls operations of the crimper, the liquid applier, and the stapler, and selectively switches between first binding performed by the liquid applier and the crimper and second binding performed by only the stapler, in accordance with information on the medium or a binding position at which the medium bundle is bound by the crimper.

A medium processing apparatus includes a conveyor, a liquid applier, and a crimper. The conveyor conveys a medium. The liquid applier applies liquid to the medium conveyed by the conveyor. The crimper presses and deforms a medium bundle including at least one medium to which the liquid is applied by the liquid applier, to bind the medium bundle. The liquid applier selectively performs application of the liquid to all media constituting the medium bundle or application of the liquid to only some of the media constituting the medium bundle, based on a conveyance interval at which the media are conveyed by the conveyor.

A medium processing apparatus includes a crimper, a liquid applier, a driving source, and a binding load detector. The crimper presses and deforms a part of a medium bundle, which is a plurality of sheet-shaped media bundled, to bind the medium bundle. The liquid applier applies liquid to a position on the media at which binding is to be performed by the crimper. The driving source operates the crimper. The binding load detector detects a load of the crimper during the binding. The liquid applier adjusts an amount of the liquid to be applied to the media in accordance with a magnitude of the load during the binding detected by the binding load detector.

A binding apparatus includes a binder configured to bind sheets of paper by advancing binding teeth toward the sheets of paper, a water supplier configured to supply a preset amount of water to the sheets of paper to be bound by the binder, and a processor configured to, if a specific condition is satisfied, make a setting to reduce the amount of water to be supplied to the sheets of paper by the water supplier.

An automated greeting card conveyance system is disclosed that includes a first conveyor configured to transport pre-decorated greeting cards along a first conveyance path and a second conveyor configured to transport envelopes along a second conveyance path. A control system controls customization of each greeting card and envelope by (a) determining a card identifier of the greeting card, (b) identifying customized content associated with an order for the greeting card having the card identifier, and (c) causing the customized content to be printed on the greeting card and envelope. A coupling system may also be used to automatically insert the greeting card into the envelope. In addition, a sealing system may be used to automatically seal envelope having a pointed envelope flap.

A vehicle is provided for installing in a prepared area along a ground surface a protective structural support proximate a buried pipeline in an automated manner. The vehicle includes a chassis with a plurality of wheels and a payload release mechanism coupled to the chassis and including a roller for holding the protective structural support. The payload release mechanism is configured to dispense and lay down the protective structural support in the prepared area. The vehicle includes a liquid dispensing mechanism that is coupled to the chassis and is located downstream of the payload release mechanism. The liquid dispensing mechanism includes a liquid source and a dispenser that is in fluid communication with the liquid source and is configured to dispense liquid across a spray area.

A water activated tape system includes a tape roller, a water bottle, and a first wipedown mechanism. The tape roller is configured to dispense water activated tape. The water bottle is configured provide liquid to wet the water activated tape. The first wipedown mechanism is configured to press the water activated tape onto a carton. The first wipedown mechanism includes a first hinged arm, a first roller, disposed at a first end of the first hinged arm, a second hinged arm, and a second roller, disposed at a first end of the second hinged arm.

A vehicle is provided for installing in a prepared area along a ground surface a protective structural support proximate a buried pipeline in an automated manner. The vehicle includes a chassis with a plurality of wheels and a payload release mechanism coupled to the chassis and including a roller for holding the protective structural support. The payload release mechanism is configured to dispense and lay down the protective structural support in the prepared area. The vehicle includes a liquid dispensing mechanism that is coupled to the chassis and is located downstream of the payload release mechanism. The liquid dispensing mechanism includes a liquid source and a dispenser that is in fluid communication with the liquid source and is configured to dispense liquid across a spray area.

The present disclosure relates to systems and methods related to the suppression of invasive plant species by laying down a fabric over beds of such invasive plants. A watercraft with a fabric laying mechanism is provided with the mechanism automatically guiding the fabric from a fabric stockpile to a frame that spreads the fabric prior to the fabric being laid over the underwater plant bed. The watercraft may be provided with a device for dispensing material over the fabric that has been laid down to weigh down or hold down the fabric. Preferably, the fabric is biodegradable and the material is natural to the area. In one implementation, the fabric (e.g jute burlap) is coarsely woven from natural plant fibers.