Abstract: A liquid discharging apparatus, having a head with a nozzle surface, a reservoir section having a liquid reservoir chamber and a first atmosphere communication path, a liquid flow path connecting the head with the liquid reservoir chamber, a first switching assembly to switch states of the first atmosphere communication path between a connecting state and a disconnecting state, a cap having a body and a second atmosphere communication path, a movable assembly to move the cap between a covering position and a separated position, and a controller, is provided. The controller is configured to control the head to discharge the liquid, and after discharging the liquid from the head, control the movable assembly to move the cap from the separated position to the covering position. With the cap being located at the covering position, the first atmosphere communication path is placed in the disconnecting state.

Abstract: A liquid discharging apparatus, having a head with a nozzle surface, a reservoir section having a liquid reservoir chamber and a first atmosphere communication path, a liquid flow path connecting the head with the liquid reservoir chamber, a first switching assembly to switch states of the first atmosphere communication path between a connecting state and a disconnecting state, a cap having a body and a second atmosphere communication path, a movable assembly to move the cap between a covering position and a separated position, and a controller, is provided. The controller is configured to control the head to discharge the liquid, and after discharging the liquid from the head, control the movable assembly to move the cap from the separated position to the covering position. With the cap being located at the covering position, the first atmosphere communication path is placed in the connecting state.

Abstract: A liquid supplying apparatus having a tank with a hole, a reservoir chamber to store a portion of liquid in the tank, and a flow path to store another portion of the liquid in the tank, is provided. The flow path connects the reservoir chamber and the hole. The flow path has a first funnel section to reduce a cross-sectional area of a part of the flow path. The first funnel section is located at a position equal to or higher than a surface of a predetermined maximum amount of the liquid storable in the tank in a usable posture. The first funnel section creates a meniscus with the liquid stored in the tank in an X1-rotated posture, in which the tank is rotated about a first axis by a first angle from the usable posture.

Abstract: A liquid discharging apparatus, having a head, reservoir section, a liquid flow path, a lid, a valve, a switching assembly, and a controller, is provided. The reservoir section has a liquid reservoir chamber, an injection port, and an atmosphere communication path. The liquid flow path connects the head and the liquid reservoir chamber. The lid opens and closes the injection port. The switching assembly switches states of the valve between an opening state, in which the valve opens the atmosphere communication path, and a closing state, in which the valve closes the atmosphere communication path. The controller is configured to control the valve through the switching assembly to close the atmosphere communication path, control the head to discharge the liquid after closing the atmosphere communication path, and control the valve through the switching assembly to open the atmosphere communication path before the liquid is injected through the injection port.

Abstract: A liquid discharging apparatus, having a head, a reservoir section including a liquid reservoir chamber and an atmosphere communication path, a liquid flow path, a switching assembly, and a controller to control the switching assembly in a disconnecting process and the head in a discharging process after the disconnecting process, is provided. A volume of an air portion in the reservoir section is controlled to satisfy formulas: Vb=(Po+?P)*?V/?P and ?P?Pm. Po represents one atmosphere. AV represents a change in the volume of the air portion due to a change in a volume of the liquid caused by discharging a predetermined amount of liquid in the discharging process. AP represents a change in pressure of the air portion according to the change in the volume of the liquid in the discharging process. Pm represents a pressure resistance of menisci formed with the liquid in the nozzles.

Abstract: A liquid discharging apparatus, having a head, a reservoir section, a valve, a switching assembly, and a controller, is provided. The reservoir section has a liquid reservoir chamber, an air chamber, an injection port, and an atmosphere communication path. The switching assembly switches states of the valve between an opening state, in which the valve opens the atmosphere communication path, and a closing state, in which the valve closes the atmosphere communication path. The controller is configured to control the valve through the switching assembly to close the atmosphere communication path, control the head to discharge the liquid after closing the atmosphere communication path, and control the valve through the switching assembly to close the atmosphere communication path before the liquid is injected through the injection port.

Abstract: A liquid supplying apparatus, having a reservoir section including a reservoir chamber, and a communication section connecting the reservoir chamber and a hole, is provided. The communication section has a first wall and a second wall, a first buffer space, and a second buffer space. The first buffer space and the second buffer space store the liquid flowing on the first wall and the second wall, respectively, in the liquid supplying apparatus being in the first rotated posture. The hole is located at an upper position with respect to a surface of a predetermined maximum amount of the liquid storable in the reservoir chamber in the liquid supplying apparatus being in a usable posture. The hole is open neither to the first buffer space nor the second buffer space. The hole is located in neither the first wall nor the second wall.

Abstract: An inkjet recording device includes: a head including a nozzle configured to eject ink toward a recording medium; a storage portion storing therein ink and formed with an air communication opening allowing an interior of the storage portion to be communicated with an outside thereof; a valve movable between an opening position opening the air communication opening and a closing position closing the air communication opening; an actuator configured to move the valve; a state sensor configured to output a detection signal based on the state of the inkjet recording device; and a controller configured to perform: (a) determining, on the basis of the detection signal, whether the inkjet recording device has an abnormality; and (b) controlling, in a case where determination is made in (a) that the inkjet recording device has an abnormality, the actuator to move the valve to the closing position from the opening position.

Abstract: A liquid discharging apparatus includes: a first storage which stores liquid; a first detector which detects an amount of the liquid in the first storage; a communication hole communicating the first storage and outside; a semipermeable membrane arranged to cover the communication hole; a head unit having at least one nozzle which discharges the liquid supplied from the first storage; a liquid flow channel which communicates the first storage and the head unit; a cap which seals the nozzle of the head unit; a cap movement mechanism which moves the cap; an electrode arranged in the cap and on which the liquid discharged from the nozzle is landed; a second detector connected electrically to the electrode; a suction mechanism which sucks the liquid and gas inside the cap; a waste liquid storage which stores the liquid sucked from inside of the cap by the suction mechanism; and a controller.