mhurhangee/ep-ind-claims huggingface dataset:
A peritoneal dialysis system comprising: a dialysis instrument; a disposable cassette (50, 150) operable with the dialysis instrument; a plurality of fluid lines in fluid communication with the disposable cassette (50, 150); a supply of dialysis fluid buffer concentrate; a supply of dialysis fluid glucose concentrate that is separate from the supply of dialysis fluid buffer concentrate; a conductivity cell including a pair of electrodes (102a, 102b); electronics (72, 108, 172) including an electrical sensor operable with the conductivity cell to measure a conductivity of the fluid flowing within the disposable cassette (50, 150) using the pair of electrodes (102a, 102b); and a processor (14, 16) operable with the electronics (72, 108, 172), characterized in that the processor (14, 16) is configured to discern a conductivity difference between (i) a sensed fluid containing one of the dialysis fluid buffer concentrate or the dialysis fluid glucose concentrate and (ii) a sensed fluid including mixed dialysis fluid having buffer concentrate and glucose concentrate, wherein the processor (14, 16) is configured to use the sensed conductivities for properly mixing the mixed dialysis fluid, and wherein the conductivity cell is positioned and arranged to contact fluid flowing within the disposable cassette (50, 150). a dialysis instrument; a disposable cassette (50, 150) operable with the dialysis instrument; a plurality of fluid lines in fluid communication with the disposable cassette (50, 150); a supply of dialysis fluid buffer concentrate; a supply of dialysis fluid glucose concentrate that is separate from the supply of dialysis fluid buffer concentrate; a conductivity cell including a pair of electrodes (102a, 102b); electronics (72, 108, 172) including an electrical sensor operable with the conductivity cell to measure a conductivity of the fluid flowing within the disposable cassette (50, 150) using the pair of electrodes (102a, 102b); and a processor (14, 16) operable with the electronics (72, 108, 172), characterized in that the processor (14, 16) is configured to discern a conductivity difference between (i) a sensed fluid containing one of the dialysis fluid buffer concentrate or the dialysis fluid glucose concentrate and (ii) a sensed fluid including mixed dialysis fluid having buffer concentrate and glucose concentrate, wherein the processor (14, 16) is configured to use the sensed conductivities for properly mixing the mixed dialysis fluid, and wherein the conductivity cell is positioned and arranged to contact fluid flowing within the disposable cassette (50, 150).
Configurable corner bearing for a sash of a window, door or the like, with a bearing bracket and a pivot bolt for supporting the sash, displaceably held on the bearing bracket by means of a threaded pin having an external thread, the threaded pin being screwed into a threaded bore of the pivot bolt having an internal thread and being rotatable for displacement of the pivot bolt for adjustment of the sash, wherein the rotation of the pivot bolt relative to the threaded pin is made more difficult by means of a rotation inhibiting means, characterised in that for the formation of the rotation inhibiting means the threaded pin has a non-round cross section at least in the region of its external thread such that at least a region of the cross-sectional external contour presents an oversize of the thread tips of the external thread relative to the dimensions of the thread valleys of the internal thread, and/or that for the formation of the rotation inhibiting means the thread depth (t) of the internal thread, at least in a region of its cross-sectional internal contour or circumferentially over its total cross-sectional internal contour, is less than the thread depth (t) of the external thread.
A releasable mechanical connecting device between a bracelet and a mechanical part, in particular a component of a wristwatch, this component comprising at least a pair of horns, the bracelet comprising at least one pivot configured to cooperate with the horns of said pair of horns, one of said horns (15, 115) being transversely movable between a holding position in which the pivot is held by said horns of the pair of horns and a release position in which said horns are moved away from each other and said pivot can be released from the horns, characterised in that the movable horn (15, 115) is constrained in the holding position by means of a compression spring (21, 121, 221).
A method of forming a polymeric composite comprising melt processing a polymeric matrix with a substrate having at least a portion of a surface of the substrate coated with graphene released from the substrate, characterized in that the graphene is released from the substrate with a solvent during or before melt processing to form the polymeric composite and wherein the graphene, the substrate or both are subject to surface modification in a liquid medium wherein the surface modification is accomplished by introducing amines, aminoazines, titanates, silanes, or combinations thereof into the liquid medium.
A process for manufacturing a spiral wound membrane module comprising a polymeric membrane, a feed spacer, a permeate spacer, a permeate tube, and end caps, all of which are unaffected by microwave radiation, the process comprising the steps of: (a) applying a microwave-curable adhesive to the polymeric membrane; (b) positioning the polymeric membrane in its desired location within the spiral wound membrane module to produce a green spiral wound membrane module ensemble; and (c) applying microwave radiation to the green spiral wound membrane module ensemble to cure the adhesive. (a) applying a microwave-curable adhesive to the polymeric membrane; (b) positioning the polymeric membrane in its desired location within the spiral wound membrane module to produce a green spiral wound membrane module ensemble; and (c) applying microwave radiation to the green spiral wound membrane module ensemble to cure the adhesive.
An apparatus comprising: at least one analog section (1110, 210) having a current transformer (212, 310, 370) with a transformer (212, 310) core configured to mount around an alternating current power line making the AC power line a primary winding of the current transformer (212, 310, 370), the at least one analog section (1110, 210) for harvesting energy from a secondary winding wound around the transformer (212, 310) core, and storing harvested energy for use by components of the apparatus and for periodically switching to allow sampling of a current flowing through the current transformer (212, 310, 370) by a sense resistor (1112, 1210), wherein a ratio between a first period of time in which the apparatus harvests energy and a total cycle time comprising the first period of time plus a second period of time in which the apparatus senses current samples plus time periods in which neither harvesting nor sensing occurs, is a duty cycle of the apparatus; a microcontroller (220, 260) coupled to the at least one analog section (1110, 210) to receive harvested energy, to determine at least a value respective of at least an analog signal responsive to the alternating current in the AC power line by the sense resistor (1112, 1210), and a time synchronization signal, the time synchronization signal configured to account for an internal drift of a clock of the microcontroller (220, 260) to be smaller than an allowed error in a current to voltage phase measurement; a temperature sensor communicatively connected to the microcontroller (220, 260) to measure the temperature at the proximity of the apparatus to provide at least a temperature value; the microcontroller (220, 260) also repeatedly responsive of at least a current sample and the temperature value to determine which one of a plurality of duty cycles is to be the duty cycle of operation of the apparatus to prevent overheating of the apparatus during periods of high current in the AC power line or of high ambient temperature; a memory coupled to the microcontroller (220, 260); and a transmitter configured to periodically transmit, under the control of the microcontroller (220, 260), information responsive to power consumption of a load connected to the AC power line that includes at least one of: the value, or the time synchronization signal; such that a receiver of the value may use the at least the value for determination of at least an electrical parameter and correction thereof respective of the time synchronization signal.
An anti-β1,6-N-acetylglucosaminyltransferase 5B monoclonal antibody for detection of an epithelial ovarian cancer marker, recognizing, as an epitope, a part of a polypeptide consisting of the amino acid sequence represented by SEQ ID NO: 1 wherein the monoclonal antibody is produced by a hybridoma identified by International Accession No. FERM ABP-11496, FERM ABP-11497, FERM ABP-11498, or FERM ABP-11499.
A process for the preparation of an alkali silicate S2, comprising the step of: reacting rice husk ash with at least one silicate precursor P1 to obtain an alkali silicate S2 having a SiO 2 /M 2 O molar ratio MR 2, wherein the at least one silicate precursor P1 is: either an alkali silicate S1 having a SiO 2 /M 2 O molar ratio MR 1, such that MR 2 > MR 1 and being prepared by direct attack of sand with an alkali hydroxide; or a mixture of sand with at least one alkali metal hydroxide.
A detergent composition consisting of: • 20-80 wt.% of builder; • 5-25 wt.% of bleach component; • 1-10 wt.% of a graft copolymer having a polysaccharide backbone and one or more side chains of one or more synthetic monomeric units; • 1-15 wt.% of nonionic surfactant represented by the following formula: R 1 -O-(CH 2 CH 2 O) n- (CHR 2 CHR 2' O) q -(CH 2 CH R 3) s -R 4 wherein ∘ R 1 is an linear or branched C 8 -C 22 alkyl radical or a linear or branched C 8 -C 22 alkylphenol radical; ∘ R 2 and R 2' are independently selected from hydrogen and a C 1 -C.5. alkyl radical, and wherein either R 2 or R 2' is hydrogen; ∘ R 3 is a covalent bond or a linear, aliphatic C 2 -C 26 alkyl radical; ∘ R 4 is selected from hydrogen, and an alkyl radical having 1-15 carbon atoms; ∘ 5 ≤ n ≤ 30; ∘ 0 ≤ q ≤ 3; ∘ s=1-5, said nonionic surfactant being selected from homopolymers, statistical copolymers, block copolymers and combinations thereof; and • 0-60 wt.% of one or more other ingredients. • 20-80 wt.% of builder; • 5-25 wt.% of bleach component; • 1-10 wt.% of a graft copolymer having a polysaccharide backbone and one or more side chains of one or more synthetic monomeric units; • 1-15 wt.% of nonionic surfactant represented by the following formula: R 1 -O-(CH 2 CH 2 O) n- (CHR 2 CHR 2' O) q -(CH 2 CH R 3) s -R 4 wherein ∘ R 1 is an linear or branched C 8 -C 22 alkyl radical or a linear or branched C 8 -C 22 alkylphenol radical; ∘ R 2 and R 2' are independently selected from hydrogen and a C 1 -C.5. alkyl radical, and wherein either R 2 or R 2' is hydrogen; ∘ R 3 is a covalent bond or a linear, aliphatic C 2 -C 26 alkyl radical; ∘ R 4 is selected from hydrogen, and an alkyl radical having 1-15 carbon atoms; ∘ 5 ≤ n ≤ 30; ∘ 0 ≤ q ≤ 3; ∘ s=1-5, said nonionic surfactant being selected from homopolymers, statistical copolymers, block copolymers and combinations thereof; and ∘ R 1 is an linear or branched C 8 -C 22 alkyl radical or a linear or branched C 8 -C 22 alkylphenol radical; ∘ R 2 and R 2' are independently selected from hydrogen and a C 1 -C.5. alkyl radical, and wherein either R 2 or R 2' is hydrogen; ∘ R 3 is a covalent bond or a linear, aliphatic C 2 -C 26 alkyl radical; ∘ R 4 is selected from hydrogen, and an alkyl radical having 1-15 carbon atoms; ∘ 5 ≤ n ≤ 30; ∘ 0 ≤ q ≤ 3; ∘ s=1-5, • 0-60 wt.% of one or more other ingredients.
A wireless electronic device, comprising: a ground plane; and a metal perimeter around the ground plane, the metal perimeter comprising a metal planar user input component comprising a metal outer surface that is coplanar with an outer surface of an adjacent portion of the metal perimeter, wherein the metal perimeter further comprises first and second antennas (210, 220); and the metal planar user input component separates the first and second antennas (210, 220).
A system for a vehicle, the system being operable to: control a driveline of a vehicle to vary an amount of driveline torque coupling between first and second groups of one or more wheels (112, 113, 114, 115); and in response to a detection of a loss of traction of one or more wheels (112, 113, 114, 115) cause a stability control system to command application of a brake torque to a wheel of the first or second groups of one or more wheels (112, 113, 114, 115) in order to induce a corrective yaw to the vehicle to maintain an intended path of travel; wherein only if an amount of the brake torque applied and/or an amount of brake pressure of a braking system employed to apply the brake torque exceeds a non-zero threshold value, the system is operable to cause the driveline to reduce the amount of driveline torque coupling between the first and second groups of wheels. control a driveline of a vehicle to vary an amount of driveline torque coupling between first and second groups of one or more wheels (112, 113, 114, 115); and in response to a detection of a loss of traction of one or more wheels (112, 113, 114, 115) cause a stability control system to command application of a brake torque to a wheel of the first or second groups of one or more wheels (112, 113, 114, 115) in order to induce a corrective yaw to the vehicle to maintain an intended path of travel; wherein only if an amount of the brake torque applied and/or an amount of brake pressure of a braking system employed to apply the brake torque exceeds a non-zero threshold value, the system is operable to cause the driveline to reduce the amount of driveline torque coupling between the first and second groups of wheels.
A cell reselection method, comprising: receiving, by a terminal device, first configuration information transmitted by a serving cell, the first configuration information being used to determine Multimedia Broadcast Multicast Service (MBMS) service deployment information of a neighboring cell; and determining, by the terminal device, a target cell for cell reselection based on the first configuration information, characterized in that, the method is applied in a New Radio, NR, system, and the first configuration information is carried in a MBMS signaling, wherein the MBMS service deployment information of the neighboring cell comprises: MBMS service deployment information of each cell in at least one frequency layer, wherein each of the at least one frequency layer belongs tc an adjacent frequency of the serving cell, and each cell belongs to the neighboring cell of the serving cell. receiving, by a terminal device, first configuration information transmitted by a serving cell, the first configuration information being used to determine Multimedia Broadcast Multicast Service (MBMS) service deployment information of a neighboring cell; and determining, by the terminal device, a target cell for cell reselection based on the first configuration information, characterized in that, the method is applied in a New Radio, NR, system, and the first configuration information is carried in a MBMS signaling, wherein the MBMS service deployment information of the neighboring cell comprises: MBMS service deployment information of each cell in at least one frequency layer, wherein each of the at least one frequency layer belongs tc an adjacent frequency of the serving cell, and each cell belongs to the neighboring cell of the serving cell.
A subsea accumulator comprising: an outer wall; a top surface; a bottom surface; and a piston disposed within the subsea accumulator, wherein a first chamber is defined by the top surface, the outer wall, and a top portion of the piston; a second chamber is defined by the bottom surface; the outer wall, and a bottom portion of the piston; and a solid oxidant is disposed within the first chamber, characterized in that the solid oxidant comprises a first portion of solid oxidant and a second quantity of solid oxidant and that the subsea accumulator is chargeable by igniting the first portion of the solid oxidant and is rechargeable by igniting the second quantity of the solid oxidant.
A method for world objects tracking and prediction executed by a world model module of an autonomous vehicle, or AV, comprising: receiving, from sensors (126, 204) of the AV, a first observation data; associating the first observation data with a first world object by: determining, using a gating area (2332, 2334, 2336) around the first observation data, world objects within the gating area, the world objects being users of a vehicle transportation network and being maintained in the world model module of the AV; and in a case that the first world object is included in the world objects, determining an association likelihood that the first observation data corresponds to the first world obj ect; determining hypotheses for the first world object, wherein a hypothesis corresponds to an intention of the first world object; determining a respective hypothesis likelihood of each of the hypotheses indicating a likelihood that the first world object follows the intention; determining, for at least one hypothesis of the hypotheses, a respective state, wherein the respective state comprises predicted positions of the first world object; and in response to a query, providing a hypothesis of the hypotheses based on the respective hypothesis likelihood of each of the hypotheses. receiving, from sensors (126, 204) of the AV, a first observation data; associating the first observation data with a first world object by: determining, using a gating area (2332, 2334, 2336) around the first observation data, world objects within the gating area, the world objects being users of a vehicle transportation network and being maintained in the world model module of the AV; and in a case that the first world object is included in the world objects, determining an association likelihood that the first observation data corresponds to the first world obj ect; determining, using a gating area (2332, 2334, 2336) around the first observation data, world objects within the gating area, the world objects being users of a vehicle transportation network and being maintained in the world model module of the AV; and in a case that the first world object is included in the world objects, determining an association likelihood that the first observation data corresponds to the first world obj ect; determining hypotheses for the first world object, wherein a hypothesis corresponds to an intention of the first world object; determining a respective hypothesis likelihood of each of the hypotheses indicating a likelihood that the first world object follows the intention; determining, for at least one hypothesis of the hypotheses, a respective state, wherein the respective state comprises predicted positions of the first world object; and in response to a query, providing a hypothesis of the hypotheses based on the respective hypothesis likelihood of each of the hypotheses.
Winch for an aircraft or vehicle, wherein the winch comprises: a central module attachable or attached to the aircraft or vehicle, the central module being formed to be mechanically connectable or connected in a manually releasable manner to at least one further module (120, 130, 150, 160) of the winch using at least one fastening device; a capstan drive module for retrieving a cable into the winch and for discharging the cable from the winch, the capstan drive module being formed to be mechanically connectable or connected to the central module in a manually releasable manner using the at least one fastening device; a cable winding module for receiving the cable by winding and unwinding the cable, the cable winding module being formed to be mechanically connectable or connected to the central module in a manually releasable manner using the at least one fastening device, characterised in that the at least one fastening device comprises quick-release fastening means for quickly connecting the modules (110, 120, 130, 140, 150, 160); and a control module formed to be mechanically connectable or connected to the central module in a manually releasable manner using the at least one fastening device, wherein the control module is configured to perform an error search on the modules of the winch. a central module attachable or attached to the aircraft or vehicle, the central module being formed to be mechanically connectable or connected in a manually releasable manner to at least one further module (120, 130, 150, 160) of the winch using at least one fastening device; a capstan drive module for retrieving a cable into the winch and for discharging the cable from the winch, the capstan drive module being formed to be mechanically connectable or connected to the central module in a manually releasable manner using the at least one fastening device; a cable winding module for receiving the cable by winding and unwinding the cable, the cable winding module being formed to be mechanically connectable or connected to the central module in a manually releasable manner using the at least one fastening device, characterised in that the at least one fastening device comprises quick-release fastening means for quickly connecting the modules (110, 120, 130, 140, 150, 160); and a control module formed to be mechanically connectable or connected to the central module in a manually releasable manner using the at least one fastening device, wherein the control module is configured to perform an error search on the modules of the winch.
A method of performing a ranging operation between a first device and a second device, the method performed by one or more processors of the first device and comprising: transmitting a first fine timing measurement, FTM, frame to the second device; recording a time of departure, TOD, of the first FTM frame; receiving an acknowledgement, ACK frame from the second device; recording a time of arrival, TOA of the ACK frame; and transmitting a second FTM frame to the second device, the second FTM frame comprising: a time value indicating a difference between the TOD of the first FTM frame and the TOA of the ACK frame; and angle information indicating a direction of the second device relative to the first device. transmitting a first fine timing measurement, FTM, frame to the second device; recording a time of departure, TOD, of the first FTM frame; receiving an acknowledgement, ACK frame from the second device; recording a time of arrival, TOA of the ACK frame; and transmitting a second FTM frame to the second device, the second FTM frame comprising: a time value indicating a difference between the TOD of the first FTM frame and the TOA of the ACK frame; and angle information indicating a direction of the second device relative to the first device. a time value indicating a difference between the TOD of the first FTM frame and the TOA of the ACK frame; and angle information indicating a direction of the second device relative to the first device.