mhurhangee/ep-ind-claims huggingface dataset:
A connector assembly comprising: a first member; a threaded shaft disposed about an axis; and a nut threadably engaged with the threaded shaft, wherein the nut includes a plurality of radially outward extending protrusions or serrations; and the connector assembly being characterized in that it further comprises a set of axially facing first teeth non-rotatably coupled to the first member; a set of second teeth configured to mate with the first teeth, the second teeth being coupled to the threaded shaft for axial movement relative to the threaded shaft and for common rotation with the threaded shaft; and a tab that is non-rotatable relative to the first member, the tab engaging the protrusions or serrations to inhibit rotation of the nut relative to the first member. a first member; a threaded shaft disposed about an axis; and a nut threadably engaged with the threaded shaft, wherein the nut includes a plurality of radially outward extending protrusions or serrations; and the connector assembly being characterized in that it further comprises a set of axially facing first teeth non-rotatably coupled to the first member; a set of second teeth configured to mate with the first teeth, the second teeth being coupled to the threaded shaft for axial movement relative to the threaded shaft and for common rotation with the threaded shaft; and a tab that is non-rotatable relative to the first member, the tab engaging the protrusions or serrations to inhibit rotation of the nut relative to the first member.
A filter-less coherent receiving system, comprising a. a filter-less coherent receiver frontend; b. a signal-signal beat-noise detector coupled to the filter-less coherent receiver frontend; and c. a real-time processor coupled to the filter-less coherent receiver frontend and the signal-signal beat-noise detector, wherein the real-time processor is adapted to reject signal-signal interference; characterized in that the signal-signal beat-noise detector is adapted to directly detect a signal-signal beat-noise; wherein the filter-less coherent receiver frontend is adapted to detect a photo current, wherein the square of the photo current is given by the following equation, wherein signal-signal beat-noise is represented by the second term of the right hand side: < I coherent 2 > = 1 2 R 2 P ch 4 P lo 4 + 1 4 R 2 N ch P ch 4 2 R s f sp wherein R: photodiode responsivity; P ch: optical power per channel, P LO: LO optical power, N ch: number of WDM channels, R s: receiver BW, f sp: WDM channel spacing and wherein the real-time processor is adapted to reject signal-signal interference by digitally subtracting the direct detected signal-signal beat-noise from the detected photo current. a. a filter-less coherent receiver frontend; b. a signal-signal beat-noise detector coupled to the filter-less coherent receiver frontend; and c. a real-time processor coupled to the filter-less coherent receiver frontend and the signal-signal beat-noise detector, wherein the real-time processor is adapted to reject signal-signal interference;
A battery monitoring system comprising: at least one battery; a plurality of sensors (10, 110) attached to the battery; a monitoring device; and a transceiving circuit (120, 131) configured to transmit a signal received from the monitoring device to the plurality of sensors and to transmit signals received from the plurality of sensors to the monitoring device, wherein the plurality of sensors generate surface acoustic waves, SAWs, in response to the signal received from the monitoring device, when receiving the signal from the monitoring device through the transceiving circuit, and wherein the plurality of sensors include: at least one first sensor configured to output a first signal corresponding to a SAW varied depending on a temperature of the battery; at least one second sensor configured to output a second signal corresponding to a SAW varied depending on pressure of the battery; and at least one third sensor configured to output a third signal corresponding to a SAW varied depending on an electrolyte leakage state of the battery, wherein the plurality of sensors include delay lines configured to delay the received signals to different times. at least one battery; a plurality of sensors (10, 110) attached to the battery; a monitoring device; and a transceiving circuit (120, 131) configured to transmit a signal received from the monitoring device to the plurality of sensors and to transmit signals received from the plurality of sensors to the monitoring device, wherein the plurality of sensors generate surface acoustic waves, SAWs, in response to the signal received from the monitoring device, when receiving the signal from the monitoring device through the transceiving circuit, and wherein the plurality of sensors include: at least one first sensor configured to output a first signal corresponding to a SAW varied depending on a temperature of the battery; at least one second sensor configured to output a second signal corresponding to a SAW varied depending on pressure of the battery; and at least one third sensor configured to output a third signal corresponding to a SAW varied depending on an electrolyte leakage state of the battery, wherein the plurality of sensors include delay lines configured to delay the received signals to different times. at least one first sensor configured to output a first signal corresponding to a SAW varied depending on a temperature of the battery; at least one second sensor configured to output a second signal corresponding to a SAW varied depending on pressure of the battery; and at least one third sensor configured to output a third signal corresponding to a SAW varied depending on an electrolyte leakage state of the battery, wherein the plurality of sensors include delay lines configured to delay the received signals to different times.
A water-ice machine for producing and dispensing water-ice food products, comprising: - a box shaped holding body for containing a liquid base product to be mixed; - a treatment circuit for said liquid base product, so as to obtain water-ice food products, comprising thermal treatment means; - means for dispensing said water-ice food product; - one or more actuators acting on said base product, said water-ice food products and/or parts of said machine; - a water-ice making device comprising a cooling and mixing unit provided with at least one stirrer and further comprises a cylindrical structure, the stirrer being mounted on the outside of the cylindrical structure, the thermal treatment means consisting of a refrigerating circuit along which a refrigerating fluid flows which refrigerating circuit comprises one heat exchanger housed within the cylindrical structure; the machine being characterized in that at least one of said one or more actuators comprises a brushless motor acting on said stirrer for driving the latter in rotation, and in that said brushless motor comprises an output shaft, a stator and a rotor provided with one or more permanent magnets and integral with the output shaft, said stirrer having a rotation shaft, the rotor being rotatably mounted at the outside of the cylindrical structure and the stator being housed in the cylindrical structure. - a box shaped holding body for containing a liquid base product to be mixed; - a treatment circuit for said liquid base product, so as to obtain water-ice food products, comprising thermal treatment means; - means for dispensing said water-ice food product; - one or more actuators acting on said base product, said water-ice food products and/or parts of said machine; - a water-ice making device comprising a cooling and mixing unit provided with at least one stirrer and further comprises a cylindrical structure, the stirrer being mounted on the outside of the cylindrical structure, the thermal treatment means consisting of a refrigerating circuit along which a refrigerating fluid flows which refrigerating circuit comprises one heat exchanger housed within the cylindrical structure;
A brake pad assembly, comprising: at least one back plate; at least one brake pad disposed at the surface of the at least one back plate; characterized by at least one spring clip comprising: two ring-shaped arms, one of the ring-shaped arms surrounding the at least one brake pad; and an elastic part connected to said ring-shaped arm; a warning module electrically connected to the elastic part, and the warning module and said ring-shaped arm forming a closed circuit; wherein when said ring-shaped arm is worn out, wherein the at least one brake pad is worn to a certain extent and the closed circuit will be disconnected, a warning signal is generated by the warning module. at least one back plate; at least one brake pad disposed at the surface of the at least one back plate; characterized by at least one spring clip comprising: two ring-shaped arms, one of the ring-shaped arms surrounding the at least one brake pad; and an elastic part connected to said ring-shaped arm; two ring-shaped arms, one of the ring-shaped arms surrounding the at least one brake pad; and an elastic part connected to said ring-shaped arm; a warning module electrically connected to the elastic part, and the warning module and said ring-shaped arm forming a closed circuit; wherein when said ring-shaped arm is worn out, wherein the at least one brake pad is worn to a certain extent and the closed circuit will be disconnected, a warning signal is generated by the warning module.
A vaccine combination comprising (i) a first composition comprising an immunologically effective amount of an adenovirus vector comprising a nucleic acid encoding an antigenic protein having SEQ ID NO:1, together with a pharmaceutically acceptable carrier; and (ii) a second composition comprising an immunologically effective amount of an MVA vector comprising a nucleic acid encoding antigenic proteins from four filovirus subtypes having SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:4, and SEQ ID NO:5, together with a pharmaceutically acceptable carrier; for use in generating a protective immune response against at least one filovirus subtype, wherein the first composition is used for priming said immune response and the second composition is used for boosting said immune response, and wherein the second composition is administered 1-12 weeks after the first composition. (i) a first composition comprising an immunologically effective amount of an adenovirus vector comprising a nucleic acid encoding an antigenic protein having SEQ ID NO:1, together with a pharmaceutically acceptable carrier; and (ii) a second composition comprising an immunologically effective amount of an MVA vector comprising a nucleic acid encoding antigenic proteins from four filovirus subtypes having SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:4, and SEQ ID NO:5, together with a pharmaceutically acceptable carrier;
Circuit with four buffers (A, B, C, D), a first data input for first data, a second data input for second data, a data output and a control logic, wherein the control logic is configured to connect the first data input to a first buffer of the four buffers (A-D), connect the second data input to a second buffer of the four buffers (A-D), connect the data output to a third buffer of the four buffers (A-D), characterized in that to disconnect the connection between the first data input and the buffer (A-D) currently connected to the first data input and establish a connection between the first data input and the currently unconnected buffer (A-D) when first data is validly written to the buffer (A-D) currently connected to the first data input via the first data input, to disconnect the connection between the second data input and the buffer (A-D) currently connected to the second data input and establish a connection between the second data input and the currently unconnected buffer (A-D) when second data is validly written to the buffer (A-D) currently connected to the second data input via the second data input, and to read data, to disconnect the connection between the data output and the buffer (A-D) currently connected to the data output and establish a connection between the data output and the currently unconnected buffer (A-D) when the unconnected buffer (A-D) has newer validly written data. four buffers (A, B, C, D), a first data input for first data, a second data input for second data, a data output and a control logic, wherein the control logic is configured to connect the first data input to a first buffer of the four buffers (A-D), connect the second data input to a second buffer of the four buffers (A-D), connect the data output to a third buffer of the four buffers (A-D), characterized in that to disconnect the connection between the first data input and the buffer (A-D) currently connected to the first data input and establish a connection between the first data input and the currently unconnected buffer (A-D) when first data is validly written to the buffer (A-D) currently connected to the first data input via the first data input, to disconnect the connection between the second data input and the buffer (A-D) currently connected to the second data input and establish a connection between the second data input and the currently unconnected buffer (A-D) when second data is validly written to the buffer (A-D) currently connected to the second data input via the second data input, and to read data, to disconnect the connection between the data output and the buffer (A-D) currently connected to the data output and establish a connection between the data output and the currently unconnected buffer (A-D) when the unconnected buffer (A-D) has newer validly written data.
A method for stimulating T-cells, the method comprising stimulating T-cells in vitro with antigen presenting cells in the presence of interleukin -7 and IL-15, and in the absence of IL-6 and IL-12, wherein the antigen presenting cells were previously exposed to one or more peptides, wherein the peptides comprise sequence that corresponds to at least part of the sequence of one or more proteins of human papillomavirus.
A method of making a vacuum insulated glass, VIG, window unit, the method comprising: having a VIG unit subassembly, the VIG unit subassembly including first and second glass substrates (2, 3), a plurality of spacers helping to maintain the first and second glass substrates (2, 3) in substantially parallel spaced apart relation to one another, and an edge seal, the first glass substrate having a hole formed therein, the hole being usable to evacuate a cavity defined between the first and second glass substrates (2, 3); the method is characterised in forming a first multi-layer thin film coating on a portion of the first substrate that is around and/or on an inner diameter of the hole, the first multi-layer thin film coating including at least one layer comprising a metal; providing a solid solder alloy pre-form in and/or around the hole, the solid solder alloy pre-form being in direct physical contact with at least a part of the first multi-layer thin film coating and comprising metal; providing a seal member over and/or in the hole so that at least part of the seal member is in physical contact with the solid solder alloy pre-form; and forming an hermetic hole seal by reactively reflowing the solid solder alloy pre-form to cause material from the first multi-layer thin film coating to diffuse into the solder alloy material and vice versa, in making the VIG unit. having a VIG unit subassembly, the VIG unit subassembly including first and second glass substrates (2, 3), a plurality of spacers helping to maintain the first and second glass substrates (2, 3) in substantially parallel spaced apart relation to one another, and an edge seal, the first glass substrate having a hole formed therein, the hole being usable to evacuate a cavity defined between the first and second glass substrates (2, 3); the method is characterised in forming a first multi-layer thin film coating on a portion of the first substrate that is around and/or on an inner diameter of the hole, the first multi-layer thin film coating including at least one layer comprising a metal; providing a solid solder alloy pre-form in and/or around the hole, the solid solder alloy pre-form being in direct physical contact with at least a part of the first multi-layer thin film coating and comprising metal; providing a seal member over and/or in the hole so that at least part of the seal member is in physical contact with the solid solder alloy pre-form; and forming an hermetic hole seal by reactively reflowing the solid solder alloy pre-form to cause material from the first multi-layer thin film coating to diffuse into the solder alloy material and vice versa, in making the VIG unit.
Crystalline 2'- O -fucosyllactose polymorph II, characterized in that it displays X-ray powder diffraction reflections, based on a measurement using CuKα radiation, at 16.98±0.20, 13.65±0.20, 18.32±0.20, 21.70±0.20, 15.22±0.20, 20.63±0.20 and 11.94±0.20 2Θ angles.
An ash discharge system which discharges clinker ash from a furnace bottom of a boiler furnace, the ash discharge system comprising: a conveyor device which transports the clinker ash out of a region that is below the furnace bottom; and a separation device provided at a passage of the clinker ash from the furnace bottom to the conveyor device, the separation device including a separator which permits the clinker ash with a predetermined size or less to pass through the separator, and inhibits a large-mass clinker from passing through the separator, the large-mass clinker being the clinker ash with a size larger than the predetermined size, characterized in that the separation device includes: a housing which is provided with an entrance through which the clinker ash moves into the separation device, an exit through which the clinker ash moves out of the separation device toward the conveyor device, and a discharge port through which the large-mass clinker is discharged; and a discharge valve device which opens and closes the discharge port, wherein the separator is provided at a passage of the clinker ash from the entrance to the exit. a conveyor device which transports the clinker ash out of a region that is below the furnace bottom; and a separation device provided at a passage of the clinker ash from the furnace bottom to the conveyor device, the separation device including a separator which permits the clinker ash with a predetermined size or less to pass through the separator, and inhibits a large-mass clinker from passing through the separator, the large-mass clinker being the clinker ash with a size larger than the predetermined size, characterized in that the separation device includes: a housing which is provided with an entrance through which the clinker ash moves into the separation device, an exit through which the clinker ash moves out of the separation device toward the conveyor device, and a discharge port through which the large-mass clinker is discharged; and a discharge valve device which opens and closes the discharge port, wherein the separator is provided at a passage of the clinker ash from the entrance to the exit. a housing which is provided with an entrance through which the clinker ash moves into the separation device, an exit through which the clinker ash moves out of the separation device toward the conveyor device, and a discharge port through which the large-mass clinker is discharged; and a discharge valve device which opens and closes the discharge port, wherein the separator is provided at a passage of the clinker ash from the entrance to the exit.
A cleaning system for removing deposits from a diesel engine comprising: a cleaning solution intake; a storage tank coupled with the cleaning solution intake and comprising: an inlet for receiving a cleaning solution from the cleaning solution intake located proximate a top portion of the storage tank; a pressure relief valve and a cleaning solution overflow conduit coupled to a top portion of the storage tank; and an outlet located proximate a bottom portion of the storage tank; a supply conduit extending between the cleaning solution intake and the inlet of the storage tank and having an access valve for regulating fluid flow between the cleaning solution intake and the inlet of the storage tank; a heating conduit extending from the outlet of the storage tank to a heating element; and an exit conduit extending from the heating element to a service hose; wherein the heating element comprises a thermal wrap that encompasses a cylindrical volume through which the cleaning solution passes from an outlet supply line coupled to the outlet of the storage tank. a cleaning solution intake; a storage tank coupled with the cleaning solution intake and comprising: an inlet for receiving a cleaning solution from the cleaning solution intake located proximate a top portion of the storage tank; a pressure relief valve and a cleaning solution overflow conduit coupled to a top portion of the storage tank; and an outlet located proximate a bottom portion of the storage tank; an inlet for receiving a cleaning solution from the cleaning solution intake located proximate a top portion of the storage tank; a pressure relief valve and a cleaning solution overflow conduit coupled to a top portion of the storage tank; and an outlet located proximate a bottom portion of the storage tank; a supply conduit extending between the cleaning solution intake and the inlet of the storage tank and having an access valve for regulating fluid flow between the cleaning solution intake and the inlet of the storage tank; a heating conduit extending from the outlet of the storage tank to a heating element; and an exit conduit extending from the heating element to a service hose; wherein the heating element comprises a thermal wrap that encompasses a cylindrical volume through which the cleaning solution passes from an outlet supply line coupled to the outlet of the storage tank.
A method of performing contention resolution associated with random access procedure between a mobile communication terminal and a base station, the method performed by the mobile communication terminal and comprising: transmitting a random access preamble; receiving a random access response; transmitting an uplink message containing a cell-radio network temporary identity, C-RNTI, of the mobile communication terminal and starting a contention resolution timer once the uplink message is transmitted; and receiving a physical downlink control channel, PDCCH, transmission addressed to the C-RNTI and containing an uplink grant; characterised in that, the method further comprises: considering the contention resolution successful and stopping the contention resolution timer upon receipt of the PDCCH transmission addressed to the C-RNTI of the mobile communication terminal and containing the uplink grant in which Channel Quality Indicator, CQI, report indication field is not set. transmitting a random access preamble; receiving a random access response; transmitting an uplink message containing a cell-radio network temporary identity, C-RNTI, of the mobile communication terminal and starting a contention resolution timer once the uplink message is transmitted; and receiving a physical downlink control channel, PDCCH, transmission addressed to the C-RNTI and containing an uplink grant; considering the contention resolution successful and stopping the contention resolution timer upon receipt of the PDCCH transmission addressed to the C-RNTI of the mobile communication terminal and containing the uplink grant in which Channel Quality Indicator, CQI, report indication field is not set.
A dose in the range 100mg to 500mg of a compound of formula: an enantiomer thereof or a pharmaceutically acceptable salt of any one of the same for use in the treatment of biliary duct cancer.