A magnetic quick connect for a fluid delivery system includes a male coupling member and a female coupling member. The male coupling member defines a first outer fluid communication path and includes a first magnetic material. A first inner member is disposed within the first outer fluid communication path and defines a first inner communication path. The female coupling member defines a second outer fluid communication path and includes a second magnetic material. A second inner member is disposed within the second outer fluid communication path and defines a second inner communication path. The male and female coupling members are detachably held together by an attractive force between the first and second magnetic materials such that the first and second outer communication paths are held in fluid communication, and the first and second inner communication paths are held in fluid communication.

The present disclosure provides a pipe for easy assembly and separation. The pipe for easy assembly and separation according to an embodiment of the present disclosure includes a rear end pipe formed in a cylindrical shape; an insertion pipe located at the other end of the rear end pipe; a front end pipe that is connected to the rear end pipe by inserting the insertion pipe into one end of the front end pipe; a first fixed portion located at one end of the insertion pipe; and a second fixed portion located at the front end pipe to correspond to the first fixed portion when the insertion pipe is inserted into the front end pipe.

A hydration system including a fluid reservoir, a fluid path in communication with the reservoir, and a magnetic quick connect interposed in the fluid path is disclosed. A fluid delivery system for a hydration system is also disclosed that includes a magnetic quick connect interposed in a fluid delivery path of the delivery system. The magnetic quick connect can also be used in a wide variety of fluid delivery systems. A kit for forming a fluid delivery system for a hydration system is also disclosed, as are various components of a hydration system.

A magnetic duct access door provides for frequent access to a variety of different kinds of duct. The access door allows for an efficient magnetic attraction to a metallic duct and easy manual removal of the access door by tilting the access door via handles on its front surface. The access door includes: an access door base; a plurality of magnets arranged around the periphery of the back surface of the access door base; a compressible sealing member located between the magnetic attachment pads on the back surface of the access door base; at least one handle portion extending from the front surface of the access door base.

A magnetic joint includes a first member and a second member. The first member includes a first plurality of magnets spaced annularly apart from each other. The second member includes a second plurality of magnets spaced annularly apart from each other. The first member is rotatably coupled to the second member. The first member is configured to be coupled to a first component and the second member is configured to be coupled to a second component. The first plurality of magnets and the second plurality of magnets are configured to cooperatively define a plurality of rotational positions between the first component and the second component.

A docking device for mechanically connecting an upper container module of a multipart container for a fluid and a lower container module of the multipart container. The docking device includes an upper docking segment, which is fastenable using an upper connecting means on opening of the upper container module, and a lower docking segment, which is fastenable using a lower connecting means on an opening of the lower container module so that fluid moves from the upper container module through a channel of the docking device into the lower container module, or moves due to buoyancy and/or due to pressure from the lower into the upper container module, if at least one valve body movable by means of an actuating assembly is in an open valve body position. An upper channel section is arranged in the upper docking segment and a lower channel section is arranged in the lower docking segment. The actuating assembly is actuatable so that it is movable from an open valve body position into a closed valve body position or from a closed valve body position into an open valve body position. The actuating assembly includes at least one blocking assembly comprising at least one blocking means that is moved into a blocking position during the docking process

The invention relates to a gas venting pipe (10) for a vehicle (100) having a forward tiltable cab, which gas venting pipe comprises: a first pipe section (12) mountable to a chassis of the vehicle; a second pipe section (14) mountable to a rear wall of the forward tiltable cab of the vehicle; and a flexible magnet connection (16) adapted to releasably interconnect the first and second pipe sections. The present invention also relates to a liquefied gas driven vehicle (100) comprising a gas venting pipe, and to a method of venting gas from a liquefied gas driven vehicle.

Pair of connecting plates contain on the backside pits fitted with magnets, while at the “connected” position the connecting plates are adjacent, they have identical axially oriented polarization. The pits have passage channels and are laid-out on imaginary circles, where the neighboring magnets have alternating polarization and by pairs and/or threes are covered with magnetic hasps fitted with hasp screws. Centering and disconnection are ensured with the help of centering holes, and possibly centering dimples, fitted with connecting/disconnecting devices. Additional passages placed between two circles with magnets can be added. Possible closing device is attached by spacing posts, spacing screws and ring.

Quick connect fluid connectors with modular connection state sensors removably or detachably mounted thereon. Each modular connection state sensor is configured to sense a connection state of the fluid connector it is mounted on. The connection state sensor indicates that the fluid connector of the first fluid system is connected to the second fluid system prior to initiating fluid flow between the first and second fluid systems. The connection state sensor senses movements of one or more elements of the quick connect fluid connector that is involved in the actual connection of the fluid connector to the second fluid system. The elements that are sensed can be, for example, one or more cylindrical sleeves of the fluid connector or a piston of the fluid connector. Therefore, the connection state of the fluid connectors can be determined accurately.

A fluid line connector and assembly provides remote securement detection and is hence equipped for initial assembly, subsequent quality inspection, and subsequent service techniques that are automated, robotic, and/or autonomous. The fluid line connector includes a body, a radio-frequency identification (RFID) chip, and a switch. The body has a passage for fluid-flow therethrough. The RFID chip has an antenna for transmitting and receiving radio frequency (RF) signals. The switch interacts with the antenna to enable the antenna to transmit and receive RF signals, and to alternatively disable the antenna from transmitting and receiving RF signals.