Abstract: A guide member including: an upper main body that is positioned so as to enclose the filling valve and so as to be movable in a vertical direction relative to the filling port; and a lower main body that is positioned so as to enclose the upper main body and is configured to be slidable on the surface of the upper main body. The lower main body is provided with an abutting portion that protrudes inward relative to the inner surface of the lower main body and that is configured to abut against at least an opening portion of the container mounted on the container supporting unit, and the guide member is configured to allow the container to be lifted while keeping the abutting portion abutted against the opening portion, thereby guiding the opening portion to an appropriate position relative to the filling port.

Abstract: A method for dispensing compressed gas from two or more compressed gas storage volumes to receiving vessel such as vehicle fuel tanks. Control instructions are provided to cycle the compressed gas storage volumes through pressure cycles in a rolling rotating cascading manner such that each of the compressed gas storage volumes cycle from an upper pressure limit to a lower pressure limit.

Abstract: The invention relates to a system for supplying a consumer with gaseous fuel. Said system comprises at least one compressed gas container, which is fluidically connected to the consumer via a collecting line and valves. To extensively utilise the capacity of the compressed gas container, a reserve container (3) is connected to the collecting line (12) via a first valve (9) and the system is equipped with an ejector pump (14), which is operated by gas from the reserve container (3) and delivers gas from the compressed gas container(s) (1, 2, . . . ) into the collecting line (12). To achieve this, with respect to the flow, the ejector pump (14) is situated between the compressed gas container(s) (1,2, . . . ) and the consumer (5).

Abstract: A television or computer detects the presence of the other, and takes an action based on that detecting.

Abstract: A filling element for filling containers includes a housing having a liquid channel, a connection for feeding liquid into the channel, a discharge port for discharging liquid into a container provided in a sealed position on the filling element, a valve in the channel between the connection and the port, an actuator for opening and closing the channel, a gas path for pre-stressing the container's interior with gas and returning displaced gas, a switching valve in the gas path, the valve being switchable by the actuator between a first state for use while pre-stressing and a second switched state for use with displaced gas, wherein in the first state, the gas path has a first effective flow cross section, and in the second state, the gas path has a second effective flow cross section, the second effective flow cross section being different from the first effective flow cross section.

Abstract: A filling machine for filling a container with a liquid having a gas line, a liquid supply line connectable to a liquid tank and at least one filling device. The filling device having an inlet communicating with the liquid supply line, a lower outlet and a gas port communicating with the gas line. A differential pressure sensor is connected to the gas line and the liquid supply line to determine a feedback value defined by the pressure difference between the lines. The gas line communicates with a gas tank that is separated from the liquid supply line and connected to a pressurized gas source. The gas tank is also connected to a discharge opening via valves controlled by an electronic control unit that brings the pressure difference between the liquid supply line and the gas line to a set-point corresponding to the feedback value.

Abstract: A vertical round container (1) for storing liquids comprises a floating cover (6) covering the surface of the liquid. The cover is sealed in relation to the container wall by means of flexible sealing elements (18, 19) and includes, on the lower side thereof, at least one compartment (62) which is open towards the liquid and contains gaseous media/vapors. Devices (40a) are provided for determining the submersion depth of the cover, and supply/discharge lines (29) are provided for modifying the quantity of the gaseous medium in the at least one compartment. The supply/discharge lines for the gaseous medium are connected to a central unit (28) provided outside the container region.

Abstract: Filling element for filling bottles or similar containers with a liquid filler, comprising a liquid channel which is formed in a filling-element housing and which has a connection for delivery of the liquid filler into the liquid channel and has a discharge opening for discharging the liquid filler into a container that is to be filled, and comprising at least one liquid valve, which is arranged in the liquid channel and controls the discharging of the liquid filler, said liquid valve having a valve body provided on a gas tube that can be moved in a controlled manner in a filling-element axis in order to open and close the liquid valve and that acts as valve plunger.

Abstract: The invention relates to the field of food industry, more particularly, to commercial equipment, and is useful in apparatuses for dispensing beer and other foaming and/or carbonated beverages from an isobaric storage to plastic bottles or glasses for sale in retail kiosks, shops, restaurants, and bars. The technical result of the present invention is a simplified maintenance both of the apparatus for a manual dispensing of beverages as a whole due to excluding the need for a sanitary treatment of a part of the filling pipe each time a container is filled and a simplified maintenance of taps due to eliminating the need for frequent washing of units and parts of these means after the dispensing of beer or another beverage is over. The technical result is reached by two embodiments of the three-way cock (6364), which are installed in the apparatus for a manual dispensing of foaming and/or carbonated beverages to uncovered containers (54).

Abstract: A filling pistol for the filling under pressure of an object essentially with nitrogen. The filling pistol has a housing with an inlet opening connectable to an air source, such as an air compressor, to supply air to the pistol. A separation device is incorporated downstream of and connected to the inlet opening to obtain essentially nitrogen-rich gas. An outlet opening is connected to the separation device and is connectable to the object to supply nitrogen-rich air from the filling pistol to the object. The separation device is provided between the air inlet and the nitrogen outlet of an exchangeable separation cartridge. An operating element sets the filling pistol to an operating condition to fill the object with nitrogen-rich air.

Abstract: A method for dispensing a compressed gas for reducing the amount of residual gas in dispensing station storage vessels before refilling is required. The method comprises transferring compressed gas into receiving vessels in a first series of fill-ups where each of the receiving vessels receive compressed gas from a first mobile storage device and subsequently from a second mobile storage device, transporting the first mobile storage device to a refilling station after the first mobile storage device has been depleted to a selected depletion level, refilling the first mobile storage device at the refilling station, and transferring compressed gas into receiving vessels in a second series of fill-ups where each of the receiving vessels receive compressed gas from the second mobile storage device and one or more of the first mobile storage device after refilling and a third mobile storage device.

Abstract: A compressed gas transfer system comprising at least one first pressure vessel able to hold a volume of gas; and a first gas line to allow gas to pass out of the at least one first pressure vessel wherein the volume of the first pressure vessel is able to be varied to maintain the gas within the pressure vessel at a constant pressure.

Abstract: The inventive method for filling a pressure gas container from a gas source pressure with a high pressure for a predetermined filling time selected or calculated prior to filling and at a determined temperature consists in forming a connection in the form of a fluid passage between the source and container, in carrying out a plurality of the passage opening-closing sequences during predetermined sub-intervals of the predetermined filling time, wherein the curve of a current pressure in the container follows, according to a time, a theoretical straight line linking the pressure measured prior to filling and after thereof during the filling time, the predetermined filling time is subdivided into a number of the time sub-intervals ranging from two to several hundreds and having respective determined duration, preferably ranging from 5 and 20 seconds.

Abstract: According to one aspect, a device for conducting liquid is disclosed. In one exemplary embodiment, the device has a first conduit with a first end that defines a first opening, a second end that is opposite to the first end and that defines a second opening, and a body portion that is defined between the first end and the second end and that defines a channel inside the body portion along the longitudinal axis. The body portion has an inner surface and an opposite, outer surface. The device is operative to direct a fluid received in the first opening to the second opening. The device also has a second conduit that is arranged external to the inner surface and the bore of the first conduit, and proximate to the outer surface. The second conduit has a first end that defines an opening, a second end that is opposite to the first end that defines a second opening, and a body portion that is defined between the first end and the second end. A bore is defined inside the body portion.

Abstract: A vapor recovery system for recovering fuel vapor from a vehicle tank during dispensing of fuel into the vehicle tank. The vapor recovery system comprises a vapor recovery line for transporting fuel vapor, and detecting device for detecting a fuel vapor flow. The detecting device comprises a housing having a vapor inlet and a vapor outlet, a body movably arranged in the housing, and a sensor arranged to detect a location of the body within the housing. The body is configured to move from a first position in the housing to a second position in the housing in dependence of a rate of fuel vapor flow flowing from the vapor inlet to the vapor outlet.

Abstract: A filling valve apparatus for filling a container with a fluid. The apparatus includes a body portion and a stem. A sleeve is disposed over the stem and is removable from the stem and the body portion when the filling valve apparatus is serviced. A seal is mounted to the bottom of the sleeve. At least one component is movably connected to the sleeve and remains connected to the sleeve when the sleeve is removed from the stem and the body portion during the servicing of the filling valve apparatus. Similarly, a valve assembly, having a housing and a movable plunger is removable from the body portion. At least one member is mechanically connected to one of the housing and plunger for creating a unitary valve assembly that remains intact when the valve assembly is removed from the body portion during servicing of the filling valve apparatus.

Abstract: A method of increasing the nitrogen concentration within a tire of a vehicle includes transporting a mobile nitrogen concentrating apparatus to a position adjacent the vehicle and concentrating a nitrogen content of a compressed first gas to obtain a second gas. The method also includes coupling the nitrogen concentrating apparatus in fluid communication with the tire and programming an inflator to purge the tire to a predetermined pressure and then pressurizing the container to a predetermined pressure. The method also includes purging the container of a portion of the existing gas and introducing a portion of the second gas into the tire to create a first gas mixture. The method additionally includes purging the container of a portion of the first gas mixture, and introducing a portion of the second gas into the tire to create a second gas mixture.

Abstract: A method of operating a vapor recovery system that recovers vapors expelled from a vehicle during refueling at a fuel dispensing point and returns the vapors to an underground storage tank through a vapor flow path that is in fluid communication with an air to liquid regulator valve and a vapor pump. The method includes dispensing fuel into the vehicle through the fuel dispensing point, regulating an amount of vapor that is recovered through the fuel dispensing point with the air to liquid regulator valve in proportion to the fuel dispensed into the vehicle, detecting a parameter of the vapor recovery system, and maintaining a substantially constant pressure level in a first portion of the vapor return path that is disposed between the vapor pump and the air to liquid regulator valve.

Abstract: A purge apparatus is provided which can purge with clean gas even in the case where an in-use state is made after a long period of a non-use state. The purge apparatus includes a nozzle which is connected to a container and through which gas passes, a detection unit which detects a connection state between the container and the nozzle, and a flow rate adjustment unit which allows the gas to flow at a first flow rate when the container and the nozzle is in a connected state is detected, and allows the gas to flow at a second flow rate which is lower than the first flow rate, when the container and the nozzle are in a disconnected state is detected.

Abstract: In order to easily and surely remove contaminants or the like from wafers stored in a pod (FOUP), a gas supply pipe is located above an opening portion in a FIMS system. A clean gas is blown to the upper surfaces of the wafers stored in the inner portion of the pod through the gas supply pipe to remove the contaminants or the like from wafers.

Abstract: Provided is a novel system and apparatus for producing primary standard gas mixtures. The system includes providing a gas permeation device having a constant diffusion rate into a temperature controlled enclosure; connecting a supply source of a component to the permeation device; routing the component from the gas permeation device to a product container until a desired amount of said component in the product container is reached; and supplying a balance of purified gas to the product container to obtain a known concentration of component in the primary standard gas mixture.

Abstract: A purgeable manifold system for the movement of low vapor pressure chemicals that may be embodied in a variety of forms. In one embodiment, a container for storing the low vapor pressure chemical has a plurality of ports; a first manifold detachably connects a first port to a source of gas, vent, or vacuum by flow communication through a first diaphragm valve; a second manifold detachably connects a second port to a source of gas, vent, vacuum, or low vapor pressure chemical, or to a process tool by flow communication through a second and a third diaphragm valve, or alternatively detachably connects a third port to the same source by flow communication through a fourth and the third diaphragm valve; and a third manifold, detachably connects a fourth port to a source of gas, vent, or vacuum by flow communication through a fifth diaphragm valve.

Abstract: A mobile self-contained self-powered station having a plurality of vessels delivers a pressurized fluid to a receiving tank (e.g., a fuel tank of a hydrogen-powered vehicle) without using mechanical compression, external electric power, or other external utilities. The station includes first and second vessels, a conduit in fluid communication with the receiving tank and each of the first and second vessels, means for transferring at least a portion of a quantity of the pressurized fluid from the first vessel to the receiving tank, means for measuring continuously a pressure differential between the increasing pressure in the receiving tank and the decreasing pressure in the first vessel, means for discontinuing the transfer from the first vessel when a predetermined limit value is reached, and means for transferring at least a portion of a quantity of the pressurized fluid from the second vessel to the receiving tank.

Abstract: A system for purging high purity interfaces connecting a high purity chemical container to process lines comprises a first purging manifold, connected at one end to a first adapter manifold extending from the high purity chemical container, and connected at the other end either to a process tool, to a second high purity container, to a source of gas, or to a source of vacuum on one side, or to a source of vent or to a source of vacuum on the other side; and a second purging manifold connecting the second adapter manifold either to a source of push gas, a source of purge gas, or a source of vacuum; or to a source of vent. A related method comprises blowing purge gas through both the first and the second purging manifolds, and, optionally, applying vacuum to both purging manifolds.

Abstract: A pressurized container includes a vessel defining a chamber therein. A housing that is connected to the vessel defines an outlet that is fluidly separated from the chamber by a closure member. A moveable member may be seated within and form a seal with the housing and abut the closure member. Activation of an initiator propels the moveable member through the closure member, thereby fluidly connecting the chamber and the outlet. Also, the chamber might include a first portion and a second portion, wherein an isolator member substantially fluidly separates the first portion and the second portion. Gas released from the first portion initially inflates an air bag associated with the pressurized container and gas released from the second portion maintains the inflation of the air bag for a time.

Abstract: A container having two ports; first block valve having two diaphragm valves, each valve having a valve seat side and a diaphragm side, each valve seat side faces the other valve seat side, and connected to the first end of a dispense conduit, one diaphragm side connected to a first port, and another diaphragm side connected to vent and or vacuum; a second valve connected to a push gas conduit and a second port.

Abstract: A method and apparatus for introducing a compressed gas into a pressure vessel, for instance, hydrogen into a vehicle fuel tank, in which hydrogen is compressed in an initial and final compressions stages which can be powered by a common source. The initial compression stage can continually operate to compress the gas in a lower pressure storage bank during the time that hydrogen is dispensed to a vehicle fuel tank. In time periods between dispensing, the gas from the lower pressure stage and from the lower pressure storage bank is compressed in the final compression stage and stored in a higher pressure storage bank. When the pressure vessel is to be filled, the compressor compresses the gas from the higher pressure storage bank to fill the vessel.

Abstract: A method and an apparatus are provided for cleanly cutting off filling of a container with toner without post-cutoff dribbling. The apparatus for the method includes (a) a conduit member having a discharging end; (b) a conveyor device for moving the toner from the hopper towards the container; and (c) a nozzle device including a positive and negative air pressure applying device, and a nozzle member for directing the toner to the container. The nozzle member has a first end connected to the discharge end of the conduit member and a second and opposite end for dispensing moving toner into the container. The nozzle member includes a post-cutoff controllable vibrator assembly connected to a controller for selectively enabling clean cutoff of powder flowing into the container without post-cutoff dribbling.

Abstract: A method in which large-volume gas containers, for example, airships having a gas holding capacity of, for example, 400,000 m3, can be filled with a process gas, includes first completely filling the container with an auxiliary gas, the density of which differs from that of the process gas. The process gas is then quiescently introduced into an upper area of the gas container in such a way that no significant mixing with the air occurs and, at the same time, the auxiliary gas is removed by suction from the lower area of the gas container. To purify the contents of the gas container, purified or fresh process gas is quiescently introduced into the upper area of the gas container in such a way that no significant mixing with the contaminated process gas present in the gas container. At the same time, the contaminated process gas is removed by suction from the lower area of the gas container. To empty the gas container, the above-described process is reversed.

Abstract: A system and method for transferring compressed gas from a supply point to a delivery point including an ejector, high and low pressure headers, and a plurality of containers that hold compressed gas and are selectively connected to the high and low pressure headers. The ejector uses energy created from the high pressure compressed gas to draw residual pressure gas out of the containers. The system and method also both preferably include a control system for controlling compressed gas flow through the system.

Abstract: A pressurized container includes a vessel defining a chamber therein. A housing that is connected to the vessel defines an outlet that is fluidly separated from the chamber by a closure member. A moveable member may be seated within and form a seal with the housing and abut the closure member. Activation of an initiator propels the moveable member through the closure member, thereby fluidly connecting the chamber and the outlet. The pressurized container might include an obstruction partially blocking an outlet path and another initiator that breaks the obstruction when activated, thereby further opening the outlet path. The pressurized container might include a main path fluidly connected to the outlet, a first secondary path that connects the main path to the chamber, and a second secondary path that also connects the main path to the chamber.

Abstract: Method and device for densifying pulverized material, which is transported by means of a feeding screw in a screw housing, wherein alternatively vacuum and compressed air is applied via a filter on the inner circumference of the screw housing.

Abstract: A method for filling a vehicle fuel tank with a gas is provided, in which the vehicle fuel tank (31) is connected to a delivery device (2) by a pressure-tight line (10) and the gas stored under pressure is filled into the vehicle fuel tank (31) from a storage unit (3) by means of the delivery device (2). The method comprises the following steps: the instantaneous value of a parameter, which is representative of the instantaneous level of filling of the vehicle fuel tank (31), is determined during filling with the aid of a sensor apparatus (32, 33) arranged in the vehicle fuel tank (31) the filling is ended when the parameter has reached a pre-settable end value.

Abstract: A filling system having a discharge unit to fill still beverages under an open ambience into containers. The filling system has an annular nozzle from which blows a sterile gas in the direction of filling. The nozzle is mounted on the filling system concentrically with the discharge unit such that sterile gas encircles beverages being discharged from the discharge unit.

Abstract: The methods and apparatus for transporting compressed gas includes a gas storage system having a plurality of pipes connected by a manifold whereby the gas storage system is designed to operate in the pressure range of the minimum compressibility factor for a given composition of gas. A displacement fluid may be used to load or offload the gas from the gas storage system. A vessel including a preferred gas storage system may also include pumping equipment for handling the displacement fluid and provide storage for some or all of the fluid needed to load or unload the vessel.

Abstract: A manifold comprising a container having two ports; a conduit connecting the container to a source/dispense of chemical having a first end and a second end and a connector for the ends; first block valve having two diaphragm valves, each valve having a valve seat side and a diaphragm side, each valve seat side faces the other valve seat side, and connected to the first end of the conduit, one diaphragm side connected to a first port, and another diaphragm side connected to vent; a second block valve having two diaphragm valves, having a valve seat side and a diaphragm side, wherein each valve seat side faces the other valve seat side, and each valve seat side connected to the second end of the conduit, the diaphragm side of one valve connected to purge, and the diaphragm side of another valve connected to push gas or chemical outlet.

Abstract: A filling apparatus 1 is made up of a gas passage 14 connected to a storage tank 31 via a connection passage 14a, a first gas valve 35 that opens and closes the gas passage, a pressure gas passage 41 connected to a pressure gas supply source, a pressure gas valve 42 that opens and closes the pressure gas passage, an exhaust passage 43 that allows an interior of a container 4 to communicate with the exterior thereof, and an exhaust valve 44 that opens and closes the exhaust passage. With this filling apparatus, before a pressurized filling operation, both the gas passage and the pressure gas passage are opened to pressurize the interior of the container with a carbonated gas supplied through both passages. Further, also before a unpressurized filling operation, both the gas passage and the pressure gas passage are opened to perform a flushing operation in which droplets are discharged from the gas passage with air exhausted from the container into the storage tank via the gas passage.

Abstract: A device for program-controlled variation of the composition of a gaseous mixture for inflating a tire for performing the method, comprising a first source of at least one main gas, a second source of at least one additional gas, at least one first compressor suitable for compressing to a preset pressure a gaseous mixture of at least said main gas and additional gas, at least one dispenser of compressed mixture which is connected to the delivery of said compressor, and further comprising at least one mixer for said at least one main gas and said at least one additional gas which is suitable for delivering a gaseous mixture having a desired composition, a gas analyzer means arranged downstream of said mixer, valve means for controlling the flow between said mixer and said first and second gas sources, and program control means arranged to control said valve means in response to control signals from said analyzer means.

Abstract: A chemical delivery system which utilizes multiple techniques to achieve a suitable chemical purge of the chemical delivery system is provided. A purge sequence serves to purge the manifold and canister connection lines of the chemical delivery system prior to removal of an empty chemical supply canister or after a new canister is installed. More particularly, a purge technique which may utilizes a variety of combinations of a medium level vacuum source, a hard vacuum source, and/or a liquid flush system is disclosed. By utilizing a plurality of purge techniques, chemicals such as TaEth, TDEAT, BST, etc. which pose purging difficulties may be efficiently purged from the chemical delivery system. The chemical delivery system may also be provided with an efficient and conveniently located heater system for heating the chemical delivery system cabinet.

Abstract: A compressed natural gas (CNG) refueling system has banks of cylinders containing CNG, a hydraulic fluid reservoir containing a hydraulic fluid which does not readily mix with CNG, and reversible flow valves. Each cylinder has a fitting installed in an opening at one end. The fitting contains a hydraulic fluid port and a gas port. The other end of each cylinder is closed. Hydraulic fluid is pumped from the reservoir into each cylinder through the hydraulic fluid port. Inside each cylinder, the hydraulic fluid directly contacts the CNG, forcing the CNG out through the gas port. When a sensor detects that the cylinders are substantially drained of CNG, the reversible flow valves will reverse orientation, allowing the hydraulic fluid to flow back into the reservoir.

Abstract: A fuel dispenser includes vapor and hydrocarbon concentration sensors positioned in the vapor recovery line to provide accurate feedback relating to the speed and concentration of hydrocarbon laden vapor recovered by a vapor recovery system. The sensors provide diagnostic information about the vapor recovery process as well as insuring that the vapor recovery process is carried out in an efficient manner. Additionally, the sensors may be positioned in an underground storage tank vent apparatus to monitor fugitive emissions from the underground storage tank.

Abstract: A balloon-inflating device capable of mixing a multiple type of gases, which includes a body having an air-inlet cavity and a compression cavity; at least one air pump mounted to the body to pump air from the air-inlet cavity to the compression cavity; at least an air nozzle mounted to the body and having an air-inlet connected to the compression cavity, wherein the nozzle is provided with a stopper to seal the air-inlet in normal operating condition; at least a second gas supply valve having an air-outlet connected to the air nozzle and having an air-inlet connected to a second gas supplier; and a control device for controlling the operation of the air pump and the second gas supply valve, thereby the opening and closing of the air pump and the second gas supply valve inflate a balloon with either air or a second gas, or a mixture of the compressed air of the air pump and the second gas.

Abstract: A device designed to interconnect with an inflatable thermia blanket. The device conveys a medium into the blanket, which applies an internal pressure to the device, and has at least two temperature settings for controlling the temperature of the medium and a pressure sensing apparatus. The pressure sensing apparatus measures the internal pressure. And when the measurement exceeds a predetermined level of internal pressure then any one of the at least two temperature settings is useable. Otherwise, when the measurement does not exceed the predetermined level of internal pressure, the device will either convey the medium at a predetermined temperature setting, which can include shutting the device down.

Abstract: A method of operating a carbonated beverage filling machine for filling beverage containers, such as beverage bottles and beverage cans, with a beverage, and also a carbonated beverage filling machine for filling beverage containers, such as beverage bottles and beverage cans, with a beverage. The beverage in the corresponding container, such as beverage bottles and beverage cans, is carbonated in the container, such as beverage bottles and beverage cans, while the container, such as beverage bottles and beverage cans, is being filled in the carbonated beverage filling machine for filling beverage containers, such as beverage bottles and beverage cans.

Abstract: A chemical delivery system which utilizes multiple techniques to achieve a suitable chemical purge of the chemical delivery system is provided. A purge sequence serves to purge the manifold and canister connection lines of the chemical delivery system prior to removal of an empty chemical supply canister or after a new canister is installed. More particularly, a purge technique which may utilizes a variety of combinations of a medium level vacuum source, a hard vacuum source, and/or a liquid flush system is disclosed. By utilizing a plurality of purge techniques, chemicals such as TaEth, TDEAT, BST, etc. which pose purging difficulties may be efficiently purged from the chemical delivery system. The chemical delivery system may also be provided with an efficient and conveniently located heater system for heating the chemical delivery system cabinet.

Abstract: A chemical delivery system which utilizes multiple techniques to achieve a suitable chemical purge of the chemical delivery system is provided. A purge sequence serves to purge the manifold and canister connection lines of the chemical delivery system prior to removal of an empty chemical supply canister or after a new canister is installed. More particularly, a purge technique which may utilizes a variety of combinations of a medium level vacuum source, a hard vacuum source, and/or a liquid flush system is disclosed. By utilizing a plurality of purge techniques, chemicals such as TaEth, TDEAT, BST, etc. which pose purging difficulties may be efficiently purged from the chemical delivery system. The chemical delivery system may also be provided with an efficient and conveniently located heater system for heating the chemical delivery system cabinet.

Abstract: A method of determining matric potential of a sample, the method comprising placing the sample in a container, the container having an opening; and contacting the sample with a tensiometer via the opening. An apparatus for determining matric potential of a sample, the apparatus comprising a housing configured to receive a sample; a portable matric potential sensing device extending into the housing and having a porous member; and a wall closing the housing to insulate the sample and at least a portion of the matric potential sensing device including the porous member.

Abstract: A valveless fuel tank assembly for a vehicle including a fuel tank having an interior chamber to hold fuel therein. The valveless fuel tank assembly also includes a vapor canister to adsorb fuel vapor in the fuel tank. The valveless fuel tank assembly includes a fill-limit tube connected to the fuel tank and communicating with the interior chamber and a tank vent tube connected to the vapor canister and operatively connected to the fill-limit tube. The valveless fuel tank assembly further includes an oleophobic filter connected to the fill-limit tube to allow vapor fuel to communicate with the vapor canister and to prevent liquid fuel from communicating with the vapor canister.

Abstract: A chemical delivery system which utilizes multiple techniques to achieve a suitable chemical purge of the chemical delivery system is provided. A purge sequence serves to purge the manifold and canister connection lines of the chemical delivery system prior to removal of an empty chemical supply canister or after a new canister is installed. More particularly, a purge technique which may utilizes a variety of combinations of a medium level vacuum source, a hard vacuum source, and/or a liquid flush system is disclosed. By utilizing a plurality of purge techniques, chemicals such as TaEth, TDEAT, BST, etc. which pose purging difficulties may be efficiently purged from the chemical delivery system. The chemical delivery system may also be provided with an efficient and conveniently located heater system for heating the chemical delivery system cabinet.

Abstract: Electronic air-supplying and pressure-equalizer system for tires, to be preferably installed at petrol stations, service areas, mechanical assistance points on roads or the like, similar to those comprising a compression unit, which, either through a deposit or directly, supplies a gas, preferably compressed air, to an inflating unit, which has several inflating conduits having, at their free ends, mechanisms for coupling the inflating conduits to a tire valve, as well as a structure for supporting the conduits, which is provided with a working unit or machine (1), including a housing (2), a metal framework (11), an electronic measuring instrument, and a pneumatic equipment (35) a propeller or compressor equipment, having an inner or outer compressing unit, a basis or supporting unit and an air-delivering unit (5).