Abstract: A rotating seal-type liquid testing apparatus includes a lower cup component, an upper cup body, a top cover and a testing element. The lower cup component includes a lower cup body, a high liquid baffle, a low liquid baffle and a water-absorbing sealing plug. The low liquid baffle and the high liquid baffle divide a bottom of an inner cavity of the lower cup body into a reaction region and a cut-off region. An edge of a bottom surface of the inner cavity of the lower cup body is provided with a vent hole, and the vent hole is positioned in the cut-off region. The upper cup body is disposed in the lower cup body, a bottom surface of an inner cavity of the upper cup body is provided with a liquid outlet, and the liquid outlet is connected to the reaction region in the lower cup body.

Abstract: Described is an automated transport unit for use in a laboratory environment the automated transport unit comprising a drive mechanism for moving the automated transport unit, a control system for controlling operation of the automated transport unit, a power supply for powering the automated transport unit, and a storage compartment configured to hold a material obtained from a fluid storage vessel and/or to be delivered to a fluid storage vessel. Also described is a system comprising an automated transport unit and a fluid storage vessel.

Abstract: Described and recited herein are example embodiments and implementations of a paper product dispenser by which the paper product may be dampened or moistened as it unrolls, based on at least the angle at which the paper product is unrolled.

Abstract: The invention relates to a sampling apparatus for use in explosive environments comprising particles of a mean size of up to 500 ?m, the sampling apparatus comprising a displaceable arm having a sample container, which displaceable arm has a first position where the sample container is inserted into a first zone for collecting a sample of particles into the sample container, and a second zone where the displaceable arm is outside the product stream, the second zone being contained in a housing with an opening for the displaceable arm. The sampling apparatus has an interface between the first and the second zone, which interface is selected from the list consisting of a closable member, a gate valve or an air knife. The invention also relates to a dryer comprising a drying chamber and a sampling apparatus of the invention. In a further aspect the invention relates to a method of estimating the flowability of a sample of organic particles.

Abstract: A fluid sample bag is composed of a first sheet and a second sheet of flexible polymeric material. Each sheet has an outer peripheral region, an inwardly oriented face and an outwardly oriented face. A continuous seam is located in the outer peripheral regions of the respective first and second sheets of flexible polymeric material, contiguously interposed between the first and second sheets and composed of melted polymeric material derived from the first and second sheets. The fluid sample bag has a gas permeability less than 10 ppm.

Abstract: A liquid sampling system includes a liquid sampling valve for transferring a liquid sample from a primary stream to a secondary stream. The liquid sampling valve includes a rotor having a movable shuttle that is in selective fluid communication with the primary stream or the secondary stream. The rotor shuttle passes through a discharge station prior to completion of the valve cycle to discharge contaminants prior to re-exposure to the primary stream.

Abstract: When injecting a sample into carrier-liquid channels (3A and 3B), injection shock is prevented. Septa 13 and 14 constitute the upper wall and the lower wall of a sample injection part (11) of the carrier-liquid channels (3A and 3B). A needle (27) can vertically penetrate the septum (13) on the upper wall side and also penetrate the septum (14) on the lower wall side. A needle moving unit (28) induces the needle (27) to penetrate the septum (14) on the lower wall side and induces the tip of the needle to face the inside of a sample vessel (26). A measurement pump (29) is operated for drawing and as a result a sample is drawn into the needle (27). Next, the needle (27) is extracted from the septum (14) on the lower wall side, the tip of the needle is induced to face the inside of the sample injection part (11), the measurement pump (29) is caused to discharge and as a result the sample within the needle (27) is injected.

Abstract: Methods and devices for inline sampling of a bulk material, such as a powder, are provided. The material's bulk density can be determined from samples drawn using methods and devices described herein. One embodiment of a method of sampling a material allows the material to flow through a sampling compartment, closes off the flow of material below the sampling compartment, builds up a column of material through the sampling compartment, shifts the sampling compartment to remove a slice of material in the column, and places the slice of material into a sample container. A device for sampling a material is provided in another embodiment. The device includes an inlet, an outlet aligned with the inlet, and a sample collector. The sample collector can include at least one through hole and be configured to move such that the at least one through hole can be moved into and out of alignment with the inlet and the outlet.

Abstract: A liquid sampling system includes a liquid sampling valve for transferring a liquid sample from a primary stream to a secondary stream. The liquid sampling valve includes a rotor having a movable shuttle that is in selective fluid communication with the primary stream or the secondary stream. The rotor shuttle passes through a discharge station prior to completion of the valve cycle to discharge contaminants prior to re-exposure to the primary stream.

Abstract: A sampling container having a bottle connected to a cap with the cap in communication with a one-way valve for the transport of fluid into the bottle; and the one-way valve configured to receive fluids there through into the opening of the bottle. Further optional embodiments also include a vacuum adapter for attaching the cap to a vacuum pump.

Abstract: A nozzle device which can perform accurate quantitative suction without being affected by a pressure when, for example, a nozzle (2) is inserted into a closed container (T). The nozzle device has the nozzle (2) that is inserted into the closed container (T) and that sucks a liquid in the closed container (T), an exposure to atmosphere mechanism (3) that opens the closed container (T) to the atmospheric air, and an opening/closing structure (4) that is arranged at a proximal end of the nozzle (2) and that has an internal flow channel (411) communicated with a flow channel in the nozzle (2) and an opening/closing mechanism for opening and closing the internal flow channel (411), and an opening/closing control section (5) that controls the opening/closing mechanism.

Abstract: The automated sample extraction device is a device for the automatic extraction of chemical samples. The device includes a housing defining an open interior region. A rotating carousel is disposed within the housing, and a plurality of sample holders are mounted thereon. A plurality of sample storage tanks each contain a unique chemical sample, and a desired volume of at least one chemical sample is drawn from a respective one of the sample storage tanks to a respective at least one of the plurality of sample holders. The carousel is rotated so that the desired volume of the at least one chemical sample may be dispensed into a receptacle positioned adjacent the carousel. The at least one chemical sample may then be mixed, heated, cooled, shaken and/or vibrated within the receptacle prior to dispensing.

Abstract: A sampling system for use in a sampling station that includes a sampling device that is releasable connectable to a branch line so that it may be removed when not needed at that site via a releasable coupling. The device has a main tube connected to the releasable coupling via a valve that is manually operated through an operating tube that is connected to the main tube so that it also functions to clear the main tube.

Abstract: A liquid sampling apparatus. The liquid sampling apparatus includes a body, a first port, and a second port, and a liquid conduit therebetween. A nose portion is provided adjacent the first port sized and shaped for interfitting engagement with, and for opening of, a biased normally closed outlet valve in a liquid reservoir. When liquid is allowed to exit a liquid reservoir, the sampling apparatus allows flow of the liquid between the ports. The body may be provided having a flexible portion, allowing the second port to be directed at a sampling container. The liquid sampling apparatus maybe constructed in polyethylene or other material suitable for use with the liquid being sampled, such as lubricant.

Abstract: A sampling device has a valve body that comprises an inlet for connecting to an unloading pipe of a container containing dry bulk product, the inlet being shaped to receive a flow of dry bulk product from the container. The valve body has a first outlet which, when opened, discharges the dry bulk product that enters the valve body through the inlet. The valve body also has a second outlet which, when opened, discharges a sample of the dry bulk product, the second outlet having a cross-sectional area that is smaller than a cross-sectional area of the first outlet. The sampling device enables a sample of dry bulk product, e.g. cement, slag, fly ash, cement kiln dust, silica fume, silica sand, lime, alumina, flour, or any other similar dry powdery substance to be obtained safely from a transport container or vessel.

Abstract: An automated sample collection workstation is provided. The workstation includes a processor, a peristaltic pump, a valve actuator, and an algorithm. The peristaltic pump and the valve actuator are in electrical communication with the processor. The valve actuator can move a plurality of valves, when disposed therein, among an off position, a flush position, and a sample position. The algorithm is resident on the processor and is configured to: move all of the valves to the off position and place the pump in an off state when no sampling or flushing is required, move all of the valves to the flush position and place the pump in an on state for a predetermined flush time period when flushing is required, and move a respective one of the valves to the sample position, move any of the valves upstream of the respective valve to the flush position, and place the pump to the on state for a predetermined sample time period when a sample is required.

Abstract: A device is provided for transferring fluid into or out of a tank and is particularly useful in transferring fluid in a substantially aseptic, hygienic, or sterile manner. The device has a body with an elongate passage extending through the body. The body has a proximal end and a distal end. A longitudinally displaceable cannula is disposed in and extends along the passage in the body. A septum sealing the passage is at a first location; the septum being pierceable and self-sealing. A diaphragm sealing the passage is at a second location intermediate the septum and the distal end of the passage. The cannula extends through and is secured to the diaphragm and has a sharpened end disposed adjacent to or in the septum. Longitudinal displacement of the cannula causes its sharpened end to pierce and project through the septum, the diaphragm stretching to accommodate the displacement of the cannula while maintaining its aseptic seal of the passage.

Abstract: An apparatus with a reduced dead volume associated with sampling, comprising: a sample container configured to store a fluid, a sample line configured to transport the fluid from a first sampling area to a second area in the sample container, at least one valve in the sample line, the valve configured to selectively range from a closed configuration to an open configuration, and a flow restrictor configuration placed in the sample line, the flow restrictor configured to minimize the dead volume for the sample container.

Abstract: The present invention provides a fluid sampling device comprising a port insert, a plurality of flexible conduits, and a plurality of sample containers. The port insert comprises a body having a plurality of shafts therethrough and a rotatably displaceable member for individually opening and closing any of said shafts to enable the flow of fluid therethrough. Flexible conduits (e.g., flexible tubing) are equal in number to the shafts, with each flexible conduit connected to or otherwise in fluid communication with an individual shaft. Similarly, sample containers (e.g., flexible bags) are equal in number to the conduits, with each sample container connected to an individual conduit opposite the connection to the shaft. A specific configuration for the port insert, as well as kit containing sterilized components of the fluid sampling device, are also described.

Abstract: A fluid transfer device for transferring fluid into or out of a fluid vessel, such as a tank, and is particularly useful in transferring fluids with particulates or high viscosity in a substantially aseptic, hygienic, or sterile manner. The device has a body with an elongate passage extending through the body. The body has a proximal end and a distal end. A longitudinally displaceable shaft is disposed in and extends along the passage in the body. A plug sealing the passage is at a first location. A diaphragm sealing the passage is at a second location intermediate the plug and the distal end of the passage. The shaft extends through and is secured to the diaphragm. A fluid transfer opening is located in the passage between the diaphragm and the plug. Longitudinal displacement of the shaft causes the fluid transfer opening to be in fluid communication with a fluid vessel, the diaphragm stretching to accommodate the displacement of the shaft while maintaining an aseptic seal of the passage.

Abstract: A system for retrieving a fluid sample from a fluid source. The preferred embodiment of the present invention contemplates a system for insertion of a probe into a pressurized fluid stream by means of male threads which are threadly engaged in a female threaded housing. An elastomeric seal is employed to form a fluid barrier around a segment of the probe's outer surface.

Abstract: The present invention relates to an air filtering system capable of enhancing inspection convenience, which is disposed in the ceiling and comprises a housing, a filter, a first sampling tube, and a second sampling tube. On both ends of the housing, an intake and an outtake are disposed opposite to each other. The filter is disposed in the housing, and has an intake surface and an outtake surface opposite to each other. The filter divides the inner space of the housing into a first sampling zone and a second sampling zone. A first end of the first sampling tube is fixed on the housing, and communicates with the first sampling zone. Likewise, a first end of the second sampling tube is fixed on the housing, and communicates with the second sampling zone. Besides, a second end of the first sampling tube and a second end of the second sampling tube are both fixed on the wall. Thereby, the inspection convenience for the inspection staffs can be enhanced.

Abstract: Device for taking samples from the bottom boundary layer of a water body, consisting of compact bottom sediments, overlying water-saturated mud layer, and near-bottom water layer directly connected with the latter, belongs among oceanographic devices. Disturbance of the probes' structure is avoided by the construction of the device with several shorter tubes with their inlet holes being located at different heights, instead of one long sampling tube. There are distinctive tubes for taking samples from layers at different heights from the bottom. The sampling tube divided into sections is furnished with isolating valves that divide the interior of the tube into layers isolated from each other. Soft and regulated drop of the device is achieved using the inflatable contact belt. Using an upper inflatable balloon avoids the vertical stability of the device and raising it to the surface without cabling.

Abstract: A fluid transfer device for transferring fluid into or out of a fluid vessel, such as a tank, and is particularly useful in transferring fluids with particulates or high viscosity in a substantially aseptic, hygienic, or sterile manner. The device has a body with an elongate passage extending through the body. The body has a proximal end and a distal end. A longitudinally displaceable substantially hollow substantially hollow shaft is disposed in and extends along the passage in the body. A plug sealing the passage is at a first location. A diaphragm sealing the passage is at a second location intermediate the plug and the distal end of the passage. The shaft extends through and is secured to the diaphragm and has a fluid transfer opening between the diaphragm and the plug.

Abstract: An apparatus and method that allow multiple samples of a liquid in a primary container (here called a ‘pouch’) to be taken with minimal danger of contaminating the liquid in the container during the sampling process are disclosed. In an embodiment, a closed sterile sight chamber is connected with the pouch in a sterile manner to allow fluid to flow into the chamber while at the same time allowing air within the chamber to be displaced through a bacterial filter to atmosphere. The connection between the sight chamber and the pouch is then terminated (severed or closed), isolating the pouch from the sampling apparatus. Only then are samples of liquid withdrawn from the sight chamber, while allowing air to flow into the chamber through the bacterial filter.

Abstract: A multiple sump fuel sampler with catch can that includes an upper fuel sampling and testing reservoir with integral lower catch can reservoir arranged such that a self-closing valve is placed between the upper sampling reservoir and the lower catch can. This self-closing valve can be easily opened and closed by a user to allow fuel in the upper sampling reservoir to drain down into the lower catch can reservoir. Embodiments of the invention include a means of spill-free dumping of fuel accumulated in the lower catch can reservoir via an integral no-drip pour spout.

Abstract: The invention relates to a particle counter apparatus for counting particles in a fluid flowing in a pipe or a pipeline. The particle counter apparatus comprises a pipe portion through which the fluid flows, where the pipe portion is provided with a fluid sample outlet for withdrawal of a fluid sample. Furthermore the particle counter apparatus also comprises a first fluid transfer body extending from the fluid sample outlet to a particle counter, and a second fluid transfer body extending from the particle counter to a fluid return outlet mounted in the pipe portion downstream of the fluid sample outlet. In the pipe portion there is mounted a propeller unit comprising a propeller and a generator, with the result that particles are distributed uniformly in the fluid before the withdrawal of fluid samples, and electric power is provided for operation of the particle counter apparatus.

Abstract: An in situ sampling device for capturing a material sample from a vessel. Embodiments of the present invention may be disposed as elongate probes having extendable sample capture elements. A sample capture element of such a device may include a concave sample capture pocket located near a distal end thereof. The sample capture pocket is adapted to capture a known volume of material when the sample capture element is extended into said material. The material sample remains trapped in the sample capture pocket upon sample capture element retraction. The sample capture pocket may be provided with a port for receiving material therein and a port for expelling material therefrom. These ports may be placed in communication with corresponding material transfer channels extending through the sample capture element. A device of the present invention provides for substantially contemporaneous sample capture and sample processing.

Abstract: A system and method for valving on a sample processing device. The system can include a valve chamber, a process chamber, and a valve septum located between the valve chamber and the process chamber. The system can further include a fluid pathway in fluid communication with an inlet of the valve chamber, wherein the fluid pathway is configured to inhibit a liquid from entering the valve chamber and collecting adjacent the valve septum when the valve septum is in a closed configuration. The method can include rotating the sample processing device to exert a first force on the liquid that is insufficient to move the liquid into the valve chamber; forming an opening in the valve septum; and rotating the sample processing device to exert a second force on the liquid to move the liquid into the valve chamber.

Abstract: Testing of engine particulate matter production during a transient is made more accurate by selecting an appropriate sized opening for a test probe of the sampling system located in the exhaust line upstream from a particulate trap. By examining the pressure signature at the test probe location and utilizing that information in conjunction with a desired volumetric flow rate into the sampling system, a flow opening size for the test probe can be selected that reduces potential oversampling which may be otherwise induced due to the back pressure increases in the exhaust line caused by the presence of the particulate trap. The flow opening into the test probe of the sampling system behaves relative unrestricted when pressure differentials at the test probe location are relatively low, such as during steady state operating conditions, but restricts flow into the sampling system when pressure differentials are relatively high, such as at a pressure during a transient event.

Abstract: A coiled tubing deployed fluid sampler (50) for collecting a single phase fluid sample from a well. The fluid sampler (50) is actuated to establish fluid communication between an interior (56) and an exterior of the fluid sampler (50) such that a fluid sample is obtained from the well in a chamber (92) of the fluid sampler (50). The fluid pressure in the coiled tubing string is then increased, which pressurizes the fluid sample in the chamber (92). Thereafter, the coiled tubing and the fluid sampler (50) are retrieved to the surface with the pressurized fluid sample remaining above its saturation pressure during collection and retrieval to the surface.

Abstract: A coiled tubing deployed fluid sampler (50) for collecting a single phase fluid sample from a well. The fluid sampler (50) is actuated to establish fluid communication between an interior (56) and an exterior of the fluid sampler (50) such that a fluid sample is obtained from the well in a chamber (92) of the fluid sampler (50). The fluid pressure in the coiled tubing string is then increased, which pressurizes the fluid sample in the chamber (92). Thereafter, the coiled tubing and the fluid sampler (50) are retrieved to the surface with the pressurized fluid sample remaining above its saturation pressure during collection and retrieval to the surface.

Abstract: The invention relates to a device for taking out and analyzing a sample from a polymerization reactor comprising one or more sample conduits (2), for taking a sample out of said reactor and for conducting said sample to one or more sample flash tanks (3), whereby said conduits each are in communication with said reactor (19) and each are provided with at least two sampling valves (4, 5); comprising one or more sample flash tanks (3), for separating said solid particles and evaporated gas, whereby said sample flash tanks are connected to said conduits (2) and provided with means for analyzing said evaporated gas (7), and comprising one or more sample receivers (6), for purifying said solid particles, whereby said receivers are connected to said sample flash tanks (3) and provided with means (8) for analyzing said solid particles. The invention further relates to a method for improving a polymerization reaction in a polymerization reactor.

Abstract: A valve for collecting a sample from a contents of a container is provided. The sampling must occur without contamination. To this end, according to the described system, the valve comprises a stationary part securely connected to the tank, a mobile part releaseably connected to the stationary part, and an actuating mechanism for switching between a base position and a switched position. The stationary part comprises a rotatably supported first partial body of a shutoff body substantially rotationally symmetrical about an axis. The mobile part comprises a rotatably supported second partial body of the shutoff body. The first partial body and/or the second partial body comprise a recess for receiving or conveying the sample.

Abstract: A device for sampling fluids that has an outer conduit having a first end connected to a non-pressurized fluid reservoir and a second end adjacent to the testing location that is remote from the fluid reservoir. An inner fluid conduit is positioned within the outer conduit, the inner fluid conduit having a first end extending into the fluid reservoir and the second end adjacent to the testing location, the second end having a connector. A pressure source selectively connects to the connector and selectively applies a vacuum to the second end of the inner fluid conduit to draw fluid from the through the inner fluid conduit and applying pressure to purge the inner fluid conduit of fluid.

Abstract: A coiled tubing deployed fluid sampler (50) for collecting a single phase fluid sample from a well. The fluid sampler (50) is actuated to establish fluid communication between an interior (56) and an exterior of the fluid sampler (50) such that a fluid sample is obtained from the well in a chamber (92) of the fluid sampler (50). The fluid pressure in the coiled tubing string is then increased, which pressurizes the fluid sample in the chamber (92). Thereafter, the coiled tubing and the fluid sampler (50) are retrieved to the surface with the pressurized fluid sample remaining above its saturation pressure during collection and retrieval to the surface.

Abstract: An in-line valve sampling system connected to a pipe conduit extracts a sample of process media in a receiving container or receptacle for testing. The valve sampling system provides a resilient sealing mechanism for corrosive process media at elevated and fluctuating temperature ranges by providing a packing cartridge having a thin film of PTFE material biased by at least one O-ring to provide a seal between a valve spindle and a raised portion of the packing cartridge.

Abstract: Methods and apparatus for removing fluid from fluid valves are described. An example apparatus for controlling fluid flow includes a fluid regulator having a body defining an inlet port, an outlet port and an aperture therebetween. The body further defining a bore fluidly coupled to a valve and at least one of the outlet port or the inlet port. The valve is to enable fluid contained within the body to be removed therefrom.

Abstract: A F.O.G. water sampling apparatus includes a housing having an inlet, an outlet, a floor that slopes downward from the inlet to the outlet and an open top. A first insert placed in the housing for normal operation includes a pipe having end flanges making a friction fit within the housing and connecting the inlet and outlet and spanning above the housing floor. A second, substitute insert to receive a F.O.G. sampling jar has a floor that slopes downward from the inlet to the outlet and at the floor of the housing.

Abstract: A coiled tubing deployed fluid sampler (50) for collecting a single phase fluid sample from a well. The fluid sampler (50) is actuated to establish fluid communication between an interior (56) and an exterior of the fluid sampler (50) such that a fluid sample is obtained from the well in a chamber (92) of the fluid sampler (50). The fluid pressure in the coiled tubing string is then increased, which pressurizes the fluid sample in the chamber (92). Thereafter, the coiled tubing and the fluid sampler (50) are retrieved to the surface with the pressurized fluid sample remaining above its saturation pressure during collection and retrieval to the surface.

Abstract: An apparatus and method for an aseptic fluidic interface between bioprocess systems is provided. The apparatus includes an inlet valve, adapted for automatic control, that is coupled to a biofluid source site. A sampling conduit extends from the inlet valve to an outlet valve. The outlet valve is adapted for automatic control and is coupled to a biofluid process site. A trap is at the sampling conduit. A waste valve, adapted for automatic control, is located at a waste conduit extending from the sampling conduit to a waste site. Also included is a wash fluid source that is coupled to at least one of the inlet or outlet valves. In the method, the sample is automatically directed to the biofluid process site by opening the outlet valve, and closing the waste valve. Also included is isolating the biofluid sites by closing the inlet and outlet valves, and opening the waste valve to drain biofluid from the trap to the waste site.

Abstract: Devices using a winch are currently used for taking samples in the boundary layer formed at the bottom of a water basin. In order to minimize the potential mixing effect at the whole length of the sampling tube, the design is presented where the sampling tube disassemble into sections is provided with horizontal valves dividing the interior of the tube into layers isolated from each other in the presented application, several shorter sampling tubes are used with their inlet holes being located at different heights. Thus, layers located at different heights are sampled by different sampling tubes. Substitution of contacts elements (shoes) with a contact surface, e.g. inflatable support belt, guarantees the stability of the sampling tube on the soft bottom. To ensure the vertical stability of the sampling tube, the device is provided with an upper stabilizing balloon.

Abstract: The present invention provides a fluid sampling device comprising a port insert, a plurality of flexible conduits, and a plurality of sample containers. The port insert comprises a body having a plurality of shafts therethrough and a rotatably displaceable member for individually opening and closing any of said shafts to enable the flow of fluid therethrough. Flexible conduits (e.g., flexible tubing) are equal in number to the shafts, with each flexible conduit connected to or otherwise in fluid communication with an individual shaft. Similarly, sample containers (e.g., flexible bags) are equal in number to the conduits, with each sample container connected to an individual conduit opposite the connection to the shaft. A specific configuration for the port insert, as well as kit containing sterilized components of the fluid sampling device, are also described.

Abstract: A sample pump system for metering the amount of sample taken from a pressurized fluid process such as a natural gas pipeline or the like, the sample pump system designed for immersion, directly or indirectly, into the pressurized fluid stream so that the sampling is taken at the prevailing pressure and temperature of the fluid stream. A spot sample cylinder device is further provided which employs a method of collection wherein the initial cylinder volume of the collection vessel or sampling cylinder is zero. The spot sample cylinder is inserted into the pressurized gas (or fluid) source, said sample cylinder employing a piston or moveable end configured such that purging of the cylinder sample cavity is not required, since the sample cavity volume is essentially eliminated prior to sampling by the location of the piston within the cavity, the cavity expanding upon sampling via piston movement within the cavity.

Abstract: The device for the transfer of a medium comprises a magazine having two main faces (17) of which one is adapted to cooperate with a container and a lateral face (18) extending between said main faces (17) as well as at least one sliding valve (3) housed in a cavity of said magazine (2) and in which there is formed a transfer duct (59) for said medium which issues on said face (17) adapted to cooperate with said container, said valve (3) having a closed position in which it sealingly isolates said duct (59) from said container and an open position in which said duct (59) is placed in communication with said container; said valve (3) comprising a valve member (40), an isolation sleeve (41) surrounding at least partially said valve member (40) as well as spring means (58) adapted to be compressed by said valve member (40) when said valve (3) is in its open position.

Abstract: A sampling device has a valve body that comprises an inlet for connecting to an unloading pipe of a container containing dry bulk product, the inlet being shaped to receive a flow of dry bulk product from the container. The valve body has a first outlet which, when opened, discharges the dry bulk product that enters the valve body through the inlet. The valve body also has a second outlet which, when opened, discharges a sample of the dry bulk product, the second outlet having a cross-sectional area that is smaller than a cross-sectional area of the first outlet. The sampling device enables a sample of dry bulk product, e.g. cement, slag, fly ash, cement kiln dust, silica fume, silica sand, lime, alumina, flour, or any other similar dry powdery substance to be obtained safely from a transport container or vessel.

Abstract: A valve for sterile sampling of a liquid sample from a container includes a valve body (1) with a valve chamber (2). The valve includes a sample inlet (6) in the valve chamber (2), a first valve seat (7), a first valve plug (5a) for closing the sample inlet (6) through abutment against a first valve seat (7), an outlet (8) from the valve chamber (2), a cleaning inlet (9) in the valve chamber (2) for disinfection fluid, a second valve seat (10) and a second valve plug (5b). The outlet (8) is positioned between the two valve seats (7, 10), and the second valve seat (10) and the second valve plug (5b) are positioned in such a manner that the second valve plug (5b) through abutment against the second valve seat (10) cuts off the inflow of disinfection fluid in an area (2b) of the valve chamber (2) at the sample inlet (6).

Abstract: A sampling device for obtaining a full stream cut of a slurry flowing in a pipe has a body connected in a section of pipe, with a first bore through the body forming a continuation of the pipe, and a second bore intersecting the first and supporting a cylinder for rotary and/or axial movement between first and second positions. The cylinder has a transverse bore which, in the first position is aligned with and forms a continuation of the flow path. When the cylinder is moved to the second position, the material in the transverse bore is captured and drained as a full stream cut sample. The cylinder may be quickly returned to the first position to permit continued flow through the pipe, or a second transverse bore in the cylinder may provide substantially continuous flow.

Abstract: The present invention provides fluid sampling device comprising a sampling head having a series of openings through it from one major surface to the other, a plurality of conduits at the downstream side of the openings and a plurality of sample containers. The openings are selectively opened and closed through the use of switches mounted within each opening and the head of the device members, each switch being movable within said head between closed and open positions. The conduits (e.g., flexible tubing) are equal in number to the openings, with each conduit connected to an individual port fitting arranged on a face of the head downstream of the respective opening. Similarly, the sample containers (e.g., flexible bags) are equal in number to the conduits, with each sample container connected to an individual conduit opposite the connection to the port. A specific configuration for the device, as well as a kit containing pre-sterilized components of the fluid sampling device, are also described.

Abstract: The invention provides an ultra-sonic jet multi-photon resonance ionization type mass analyzing device. The laser beam ionization mass analyzing device includes a pulsed gas ejecting device 12 for ejecting in pulse mode carrier gas containing sample molecules into a vacuum vessel 17, a laser beam irradiation system for irradiating laser beam for selective photo-reaction of sample molecules in said pulsed gas, repeller and extraction electrodes 18 and 19 generating an electric field for extraction of sample molecular ions generated by the photo reaction and a mass analyzing device 26 for mass analysis of extracted sample molecular ions. The laser beam irradiation system is set to irradiate laser beam to sample molecules near a position whereat a pressure time distribution of pulsed gas translating in the vacuum vessel 17 transitions from a flat-top pressure distribution to a triangular pressure distribution.