A fuel drip retention system includes a computer programmed to actuate one of a pump or a starter motor to generate a vacuum in an evaporation line between a fuel nozzle receiving port and a vapor canister. The vacuum is generated upon determining that fuel has stopped flowing into a fuel tank.

Device (100) for achieving a temporary connection between two objects (101,102) which are movable relative to each other, comprising respective connecting means (114,154), being brought together in order to jointly establish said connection, a movable robot (110), arranged to continuously displace the first connecting means relative to the first object, a control means (120), arranged to control the movements of the robot relative to the first object, as well as a sensor means (130), arranged to continuously read a relative position between the first connecting means and the second connecting means while the said objects move relative to each other. The invention is characterised in that the control means is arranged to, while the objects move relative to each other, continuously control the robot so that the first connecting means is displaced, relative to the first object and up to the second connecting means, and there connects to the second connecting means. The invention also relates to a method.

A removal system (1) with at least one container (2) with a container opening (6), to which a removal head (4) can be attached, such that by means of the removal head (4), liquid (3) can be removed from the container (2) or liquid (3) can be supplied to the container (2). An RFID chip (9) is present on the container (2). A measurement head (14) with a coil (15) of an RFID reader unit can be attached to a movable robot arm (11). A code can be read from the RFID chip (9) with the RFID reader unit when it is within the reading range of the RFID reader unit, wherein when the code is read, it is adopted as positioning signal in a control unit (12) of the robot (10), on the basis of which the removal head (4) can be positioned on the container opening (6).

A transfer device for transferring flowable material between a first reservoir and a second reservoir is provided having a loading device (106) mounted on a support structure (101). The loading device (106) includes several loading arm sections (103-105) mechanically connected by pivot joints (113,116,118). The transfer device further has a transfer line (122) connecting the first and second reservoir. The transfer line (122) is composed of rigid and flexible transfer line sections (123-126, 133). The flexible transfer line sections connect the rigid transfer line sections. At an upstream end at least one rigid transfer line section branches into several flexible transfer lines, which are fluidly merged into the next rigid transfer line in flow direction.

Disclosed herein is a logistics system and a method for the automatic transshipment of at least one fluid medium. The logistics system includes at least one transshipment site, wherein the transshipment site is configured to carry out at least one process selected from the group consisting of loading a mobile tank with the fluid medium and unloading the fluid medium from the mobile tank, where the transshipment site has at least one pipe system having at least one pipe connection, at least one controller, where the controller is programmed to control at least one function of the logistics system, at least one movement system having at least one movement arm and an automatic coupling system, where the movement arm is configured to move the coupling system, where the automatic coupling system is configured to automatically open at least one tank nozzle of the mobile tank, where the automatic coupling system is furthermore configured to automatically open the pipe connection of the transshipment site, and where the automatic coupling system is furthermore configured to fluidically connect the tank nozzle and the pipe connection.

The objective of the present invention is to provide a vehicle charging robot device, of which a robot for charging a vehicle is stored in a case, so as to protect the robot from external conditions including rain, wind, temperature, humidity, and the like, and prevent malfunction or failure, or damage to the robot.