mhurhangee/ep-ind-claims huggingface dataset:
A method of providing at least two outlet purified water streams from a water purification system comprising at least the steps of: (a) providing a first purified water having a conductivity of <50 μS/cm in a first reservoir able to provide an outlet purified water stream; (b) passing at least a portion of the first purified water from the first reservoir through a water purification process to provide an ultra-purified water stream; (c) passing the ultra-purified water stream to a second reservoir; (d) providing an excess of ultra-purified water into the second reservoir beyond a pre-determined quantity; (e) allowing the excess ultra-purified water in the second reservoir to overflow by falling from the second reservoir into the first reservoir; and (f) providing an outlet from the water purification system of an ultra-purified water stream having a resistivity of >10MΩ.cm from the second reservoir. (a) providing a first purified water having a conductivity of <50 μS/cm in a first reservoir able to provide an outlet purified water stream; (b) passing at least a portion of the first purified water from the first reservoir through a water purification process to provide an ultra-purified water stream; (c) passing the ultra-purified water stream to a second reservoir; (d) providing an excess of ultra-purified water into the second reservoir beyond a pre-determined quantity; (e) allowing the excess ultra-purified water in the second reservoir to overflow by falling from the second reservoir into the first reservoir; and (f) providing an outlet from the water purification system of an ultra-purified water stream having a resistivity of >10MΩ.cm from the second reservoir.
Item of seating furniture having a plurality of moulded bodies which are arranged adjacent to one another and form a seating surface with a free end face thereof, having an elastic support means of the moulded bodies, wherein the moulded bodies are held so as to be movable in an actuation direction against a restoring force with the support means being deformed, and having a support for the support means, wherein at least individual moulded bodies are connected together, in that the moulded bodies are fixed to the support means as elastic connection means, characterised in that - a depth of the moulded bodies, as determined in the actuation direction of the moulded bodies, is less than a maximum outer dimension of the moulded body, as determined perpendicular to the actuation direction, and/or in that the depth is less than a minimum outer dimension of the moulded body, as determined perpendicular to the actuation direction, and in that - a carpet-like unit formed by the moulded bodies and the connection means is applied to the support such that it is removed and separately inserted in the manner of a chair cushion. - a depth of the moulded bodies, as determined in the actuation direction of the moulded bodies, is less than a maximum outer dimension of the moulded body, as determined perpendicular to the actuation direction, and/or in that the depth is less than a minimum outer dimension of the moulded body, as determined perpendicular to the actuation direction, and in that - a carpet-like unit formed by the moulded bodies and the connection means is applied to the support such that it is removed and separately inserted in the manner of a chair cushion.
A user equipment, UE, comprising: at least one transceiver configured to receive reference signals within a discovery signals measurement timing configuration, DMTC, period from an eNodeB, eNB, operating in a cell over an unlicensed spectrum band, wherein the reference signals are transmitted based on a channel sensing on the unlicensed spectrum band and each of the reference signals comprises at least one of a cell-specific reference signal, CRS, or a channel state information-reference signal, CSI-RS; and at least one processor configured to: detect the reference signals that occurred within the DMTC period, determine a first detected occasion of a reference signal among the reference signals in a subframe within the DMTC to be a discovery signal occasion used for a CSI measurement, wherein the subframe is the first subframe containing a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a CRS within the DMTC period, and measure the reference signal to obtain a CSI measurement report, wherein the at least one transceiver is further configured to transmit the CSI measurement report to the eNB according to a configuration received from the eNB. at least one transceiver configured to receive reference signals within a discovery signals measurement timing configuration, DMTC, period from an eNodeB, eNB, operating in a cell over an unlicensed spectrum band, wherein the reference signals are transmitted based on a channel sensing on the unlicensed spectrum band and each of the reference signals comprises at least one of a cell-specific reference signal, CRS, or a channel state information-reference signal, CSI-RS; and at least one processor configured to: detect the reference signals that occurred within the DMTC period, determine a first detected occasion of a reference signal among the reference signals in a subframe within the DMTC to be a discovery signal occasion used for a CSI measurement, wherein the subframe is the first subframe containing a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a CRS within the DMTC period, and measure the reference signal to obtain a CSI measurement report, wherein the at least one transceiver is further configured to transmit the CSI measurement report to the eNB according to a configuration received from the eNB. detect the reference signals that occurred within the DMTC period, determine a first detected occasion of a reference signal among the reference signals in a subframe within the DMTC to be a discovery signal occasion used for a CSI measurement, wherein the subframe is the first subframe containing a primary synchronization signal, PSS, a secondary synchronization signal, SSS, and a CRS within the DMTC period, and measure the reference signal to obtain a CSI measurement report, wherein the at least one transceiver is further configured to transmit the CSI measurement report to the eNB according to a configuration received from the eNB.
Filling and changing device for filling at least one container with bulk material as well as exchanging a container filled with bulk material with an empty container, with • a receiving region for at least one container to be filled with bulk material, • a conveyer device for supplying the bulk material to a bulk material transfer position to the container located in the receiving region, • at least one container transfer position (L,V) for removing and/or supplying filled or empty containers from or to the receiving region, characterised in that there is provided a moving means for the two dimensional horizontal movement of the container in the receiving region relative to the bulk material transfer position during filling of the container and in that there is provided a lifting device on the one hand for a vertical movement of the at least one container located in the receiving region relative to the bulk material transfer positions during filling of the container, and on the other hand for the transfer of the receiving region to the at least one container transfer position (L,V). • a receiving region for at least one container to be filled with bulk material, • a conveyer device for supplying the bulk material to a bulk material transfer position to the container located in the receiving region, • at least one container transfer position (L,V) for removing and/or supplying filled or empty containers from or to the receiving region,
An in vitro screening method for screening a substance capable of increasing proliferation and survival of B cells in an early stage of the immune response, wherein the method is based on determining the degree of inhibition of the expression of the CD22 gene in IgM and IgD positive naive B cells, wherein said method comprises the following steps: (a) contacting, in vitro, a substance to be screened with IgM and IgD positive naive B cells; (b) detecting the degree of inhibition of the expression of the CD22 gene in said cells; and (c) selecting a substance which inhibits said expression, and wherein the early stage of the immune response is from the first to the seventh day after an immunization. (a) contacting, in vitro, a substance to be screened with IgM and IgD positive naive B cells; (b) detecting the degree of inhibition of the expression of the CD22 gene in said cells; and (c) selecting a substance which inhibits said expression,
A fluid conveying device for conveying a urea solution in an engine exhaust gas treatment system, said fluid conveying device comprising an integrated cabinet, a pump mounted in said integrated cabinet, an inlet pipeline connected to said pump and an outlet pipeline connected to said pump, said pump comprising a motor positioned at the bottom, a pump head positioned at the top and a magnetic coupling part positioned between said motor and said pump head, wherein said pump head, said magnetic coupling part and said motor are arranged from top to bottom, and a U-shaped flow passage and a gear mechanism positioned at the bottommost of said flow passage are arranged in said pump head, characterised in that said inlet pipeline and said outlet pipeline are connected to two ends of the flow passage respectively, and said inlet pipeline, said outlet pipeline and said pump head are mutually connected to form an inverted U shape, wherein said integrated cabinet is provided with a bottom wall, and said inlet pipeline is provided with a before-pumping monitoring module close to said bottom wall, an inlet pipe connected to said before-pumping monitoring module and vertically extending, and an inlet connecting pipe connected to said inlet pipe and said pump head; and said outlet pipeline is provided with an after-pumping monitoring module close to said bottom wall, an outlet pipe connected to said after-pumping monitoring module and vertically extending, and an outlet connecting pipe connected to said outlet pipe and said pump head.
Drive system for a watercraft which is divided into a first part which can be connected to the watercraft in a torsion-proof manner and a second part which can be pivotable in an azimuthing manner in relation thereto by means of a control motor with a subordinated gear drive, characterised in that water is used to lubricate the gear drive.
Apparatus for use with a fluid that contains biological cells, the apparatus comprising: a tray that has a thickness between 0.4 and 0.8 mm and a property selected from the group consisting of: transparency and translucency, the tray shaped so as to define an underside and a flat planar upper surface configured to support the fluid, wherein the apparatus either is shaped and sized to fit inside a cryogenic vial having a length of 44 mm and a diameter of 12.5 mm; or wherein the apparatus is provided in combination with a cryogenic vial and is shaped and sized to fit thereinside, the apparatus characterized in that: the flat planar upper surface configured to support the fluid is not completely surrounded by a wall and has a surface area that is less than 900 mm2, the tray is shaped to define a plurality of protrusions protruding from the underside of the tray, and the apparatus further comprises a handle comprising: a first handle portion being generally perpendicular to the tray, and disposed at an end of the tray; and a second handle portion being generally parallel to the tray, and coupled to the first handle portion. a tray that has a thickness between 0.4 and 0.8 mm and a property selected from the group consisting of: transparency and translucency, the tray shaped so as to define an underside and a flat planar upper surface configured to support the fluid, wherein the apparatus either is shaped and sized to fit inside a cryogenic vial having a length of 44 mm and a diameter of 12.5 mm; or wherein the apparatus is provided in combination with a cryogenic vial and is shaped and sized to fit thereinside, the apparatus characterized in that: the flat planar upper surface configured to support the fluid is not completely surrounded by a wall and has a surface area that is less than 900 mm2, the tray is shaped to define a plurality of protrusions protruding from the underside of the tray, and the apparatus further comprises a handle comprising: a first handle portion being generally perpendicular to the tray, and disposed at an end of the tray; and a second handle portion being generally parallel to the tray, and coupled to the first handle portion. the flat planar upper surface configured to support the fluid is not completely surrounded by a wall and has a surface area that is less than 900 mm2, the tray is shaped to define a plurality of protrusions protruding from the underside of the tray, and the apparatus further comprises a handle comprising: a first handle portion being generally perpendicular to the tray, and disposed at an end of the tray; and a second handle portion being generally parallel to the tray, and coupled to the first handle portion. a first handle portion being generally perpendicular to the tray, and disposed at an end of the tray; and a second handle portion being generally parallel to the tray, and coupled to the first handle portion.
A current collector, comprising an insulation layer; and a conductive layer at least located on at least one surface of the insulation layer, wherein the conductive layer has a room temperature thin film resistor of R S, where 0.01Ω/□ ≦ R S ≦0.15Ω/□, and the current collector is provided with a plurality of holes penetrating through the insulation layer and the conductive layer, characterized in that the conductive layer is further arranged on wall surfaces of the plurality of holes, and for each of the plurality of holes having the conductive layer disposed on its wall surface, the conductive layer is located on an entirety or a part of the wall surface.
A process for using at least one IR heater to heat treat selected portions of an integrally bladed rotor having a plurality of blades (11,23), wherein the at least one IR heater comprises a device for heat treating a metal component having: a housing (13,15) providing an axially extending cavity; at least one parabolic mirror (17,19) formed in the axially extending cavity; and at least one IR heat source for providing IR heat rays in a direction toward the at least one parabolic mirror, the process comprising: mounting an IBR on a fixture having a rotor engaging portion; mounting the at least one IR heater on one of the IBR blades; moving the fixture having an IBR into an environmental chamber; evacuating air from the chamber and adding an inert gas; heat treating the blade having the IR heater; lifting the IR heater from the blade and indexing the IBR to position another blade in alignment with the IR heater; mounting the IR heater on the another blade and heat treating the another blade, repeating the steps including indexing and heat treating of the IBR blades until all its blades are heat treated; and removing the IBR from the chamber; wherein the step of mounting the at least one IR heater comprises: positioning two IR heat sources in opposite directions such that the at least one parabolic mirror of each IR heat source is positioned to focus a band of the IR heat rays onto opposite sides of the blade. a housing (13,15) providing an axially extending cavity; at least one parabolic mirror (17,19) formed in the axially extending cavity; and at least one IR heat source for providing IR heat rays in a direction toward the at least one parabolic mirror, mounting an IBR on a fixture having a rotor engaging portion; mounting the at least one IR heater on one of the IBR blades; moving the fixture having an IBR into an environmental chamber; evacuating air from the chamber and adding an inert gas; heat treating the blade having the IR heater; lifting the IR heater from the blade and indexing the IBR to position another blade in alignment with the IR heater; mounting the IR heater on the another blade and heat treating the another blade, repeating the steps including indexing and heat treating of the IBR blades until all its blades are heat treated; and removing the IBR from the chamber; positioning two IR heat sources in opposite directions such that the at least one parabolic mirror of each IR heat source is positioned to focus a band of the IR heat rays onto opposite sides of the blade.
Container processing system for processing containers or the like, comprising at least one container processing segment as well as at least one format part with a predefined format part geometry, which is arranged along the container processing segment in a detachable manner at the container processing system, and is at least partially adapted to a container geometry of the container or the like which is to be processed, wherein the container processing system comprises at least one processing device for adapting the predefined format part geometry of the at least one format part of the container processing system to a format part geometry which is defined by the actual container geometry, characterised in that the at least one processing device adapts the at least one format part, dependent on a control and processing routine carried out in a control unit, to the format part geometry defined by the actual container geometry.
An optical fiber comprising: a glass waveguide fiber comprising a glass core surrounded by a glass cladding; a hybrid cladding surrounding said glass waveguide fiber and directly contacting the glass cladding; a primary coating surrounding the hybrid cladding; and wherein said hybrid cladding comprises the cured product of a composition that includes: a monomer, said monomer comprising a radiation-curable functional group, wherein the radiation-curable functional group is an ethylenically unsaturated group; a photo initiator; and a slip component for reducing the adhesion of the hybrid cladding to the primary coating, said slip component comprising silicon and an ethylenically unsaturated group and wherein the slip component is present in an amount from 5 wt% to 40 wt%, wherein the wt% is calculated as the amount in the composition on a basis free of photoacid or additives; and wherein the hybrid cladding has an elastic modulus of between 1300 MPa and 3500 MPa at 25 °C. a glass waveguide fiber comprising a glass core surrounded by a glass cladding; a hybrid cladding surrounding said glass waveguide fiber and directly contacting the glass cladding; a primary coating surrounding the hybrid cladding; and wherein said hybrid cladding comprises the cured product of a composition that includes: a monomer, said monomer comprising a radiation-curable functional group, wherein the radiation-curable functional group is an ethylenically unsaturated group; a photo initiator; and a slip component for reducing the adhesion of the hybrid cladding to the primary coating, said slip component comprising silicon and an ethylenically unsaturated group and wherein the slip component is present in an amount from 5 wt% to 40 wt%, wherein the wt% is calculated as the amount in the composition on a basis free of photoacid or additives; and a monomer, said monomer comprising a radiation-curable functional group, wherein the radiation-curable functional group is an ethylenically unsaturated group; a photo initiator; and a slip component for reducing the adhesion of the hybrid cladding to the primary coating, said slip component comprising silicon and an ethylenically unsaturated group and wherein the slip component is present in an amount from 5 wt% to 40 wt%, wherein the wt% is calculated as the amount in the composition on a basis free of photoacid or additives; and wherein the hybrid cladding has an elastic modulus of between 1300 MPa and 3500 MPa at 25 °C.
A method for bidirectional communication between a command unit and a serially and electrically connected plurality of LED control units (SE1, SE2, SE3), the method comprising the following steps: - transmitting a control command as an instruction directed to all LED control units (SE1, SE2, SE3) from the command unit to the first in series connected LED control unit; - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) which first received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives the same control command and executes it and immediately passes the same directly after reception before the execution or during the execution on; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit receives the execution results of each LED control unit (SE1, SE2, SE3), characterized in that the execution result is a status information describing how the execution of the control command was performed. - transmitting a control command as an instruction directed to all LED control units (SE1, SE2, SE3) from the command unit to the first in series connected LED control unit; - executing the transmitted control command in the LED control unit (SE1, SE2, SE3) which first received the control command and immediate passing-on of the unchanged control command to the next connected LED control unit (SE1, SE2, SE3) which did not transmit the control command, iteratively in such a way that each LED control unit (SE1, SE2, SE3) receives the same control command and executes it and immediately passes the same directly after reception before the execution or during the execution on; and - respectively returning an execution result of the control command, starting from the last serially connected LED control unit to the respective previous unit (BE, SE1, SE2), wherein each of the plurality of LED control units (SE1, SE2) attaches its execution result to the received execution result in an iterative way such that the control unit receives the execution results of each LED control unit (SE1, SE2, SE3), characterized in that the execution result is a status information describing how the execution of the control command was performed.
A subsea mooring connector comprising first (1, 20) and second (2, 21) connectable parts, each part comprising a respective structure (9, 15, 25, 37) arranged so that when the two parts are brought together and appropriately aligned with each other a locking member (10, 34) may be engaged with the two respective structures to releasably connect the two parts together, wherein: the connectable parts comprise respective mutually cooperating formations (11, 12, 36) arranged such that, as the connectable parts are brought together out of sufficient rotational alignment with each other, engagement of the respective cooperating formations causes the two parts to rotate relative to one another so that they are brought into sufficient rotational alignment to enable the locking member to be engaged with the respective structures; the second part has a free end; the cooperating formation of the second part comprises a radial shoulder which is spaced from the free end of the second part and extends completely around the circumference of the second part; and characterised by the axial position of the shoulder on the second part varying with its position around the circumference of the second part such that the shoulder extends symmetrically between two diametrically opposed positions where the shoulder is nearest the free end of the part, and two diametrically opposed positions axially spaced from those closest to the free end of the part where the shoulder is furthest from the free end of the part.