mhurhangee/patent-ind-claim-en huggingface dataset:
A pipeline contaminant monitor comprising: a housing; a light source situated within the housing; an analyzer , situated within the housing, for a) illuminating, with the light source , sampled fluid removed from a pipeline having contaminant particles, and b) collecting scattered light from contaminant particles in the illuminated sampled fluid , the analyzer having a flow cell configured to receive sampled fluid flow at a pressure and temperature exhibited by the fluid flow within the pipeline and to preserve the sampled fluid flow at the pressure and temperature within the pipeline; at least one detector , situated within the housing, for generating electrical signals from scattered light from the analyzer ; and a processor , situated within the housing, a) for converting the electrical signals from the at least one detector into digital data pertaining to the contaminant particles for evaluation, and b) for transmitting the digital data to a communication network to distribute the digital data to at least one digital data processor for further processing. a housing; a light source situated within the housing; an analyzer , situated within the housing, for a) illuminating, with the light source , sampled fluid removed from a pipeline having contaminant particles, and b) collecting scattered light from contaminant particles in the illuminated sampled fluid , the analyzer having a flow cell configured to receive sampled fluid flow at a pressure and temperature exhibited by the fluid flow within the pipeline and to preserve the sampled fluid flow at the pressure and temperature within the pipeline; at least one detector , situated within the housing, for generating electrical signals from scattered light from the analyzer ; and a processor , situated within the housing, a) for converting the electrical signals from the at least one detector into digital data pertaining to the contaminant particles for evaluation, and b) for transmitting the digital data to a communication network to distribute the digital data to at least one digital data processor for further processing.
A communication method, comprising: receiving , by a core network device through an access network device a message from a terminal, wherein the message comprises a first identifier, and the first identifier is used to indicate a message type of the message, and the message type of the message corresponds to a control plane entity type; and determining , by the core network device, the control plane entity type to receive the message based on the first identifier; wherein the message is a non-access stratum protocol data unit, NAS PDU, and the first identifier is in the NAS PDU; the method characterised in that : the message further comprises a second identifier, and the second identifier is used to indicate a network slice for which the message is destined; and sending, by the core network device, based on the second identifier, the message to the control plane entity in the network slice for which the message is destined. receiving , by a core network device through an access network device a message from a terminal, wherein the message comprises a first identifier, and the first identifier is used to indicate a message type of the message, and the message type of the message corresponds to a control plane entity type; and determining , by the core network device, the control plane entity type to receive the message based on the first identifier; wherein the message is a non-access stratum protocol data unit, NAS PDU, and the first identifier is in the NAS PDU; the method characterised in that : the message further comprises a second identifier, and the second identifier is used to indicate a network slice for which the message is destined; and sending, by the core network device, based on the second identifier, the message to the control plane entity in the network slice for which the message is destined.
Method for producing a heat exchanger module having at least one fluid circuit, comprising the following steps: a) producing an open part of a metal shell; b) producing one or more metal tubes of at least one fluid circuit; c) optionally, introducing a first set of one or more elements made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy (s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s) ; d) assembling the open part of the shell and the tube(s) ; e) introducing a second set of one or more elements made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy(s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s) ; f) closing the metal shell in a sealed manner, so as to form the final exterior form of the heat exchanger module; g) heating the sealed shell until the element(s) made of at least one fusible metal alloy or metal melt and the tube(s) harden; h) cooling the whole so as to obtain the final assembly of the heat exchanger module. a) producing an open part of a metal shell; b) producing one or more metal tubes of at least one fluid circuit; c) optionally, introducing a first set of one or more elements made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy (s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s) ; d) assembling the open part of the shell and the tube(s) ; e) introducing a second set of one or more elements made of at least one fusible metal alloy or metal into the open part of the shell, the metal (s) or metal alloy(s) having a melting temperature lower than those of the metal(s) of the shell and of the tube(s) ; f) closing the metal shell in a sealed manner, so as to form the final exterior form of the heat exchanger module; g) heating the sealed shell until the element(s) made of at least one fusible metal alloy or metal melt and the tube(s) harden; h) cooling the whole so as to obtain the final assembly of the heat exchanger module.
A method of a first server for controlling migration of a Quick User Datagram Protocol, UDP, Internet Connections, QUIC, connection between the first server and a second server, wherein the QUIC connection is identifiable by a connection identifier, CID, and is established to a migrating wireless device having a client IP-address, and wherein the first server and the second server comprise respective cache memories, are comprised in a content delivery network, CDN, and have a same server IP-address, the method comprising: - receiving (S42), at the first server from the second server, static key information representative of the QUIC connection; - determining (S43), at the first server, context transfer state information for the QUIC connection comprising a connection state and a tuple for the QUIC connection, which tuple comprises the CID, the client IP-address and the server IP-address; - generating (S44), at the first server, a stateless reset token based on the determined context transfer state information for the QUIC connection; and characterized in that the method further comprises the step of: - controlling (S44), at the first server, transmission of the generated stateless reset token to a monitoring function of the second server for use by the second server in generating a stateless reset packet for the QUIC connection to enable the migrating wireless device to reset the QUIC connection. - receiving (S42), at the first server from the second server, static key information representative of the QUIC connection; - determining (S43), at the first server, context transfer state information for the QUIC connection comprising a connection state and a tuple for the QUIC connection, which tuple comprises the CID, the client IP-address and the server IP-address; - generating (S44), at the first server, a stateless reset token based on the determined context transfer state information for the QUIC connection; and characterized in that the method further comprises the step of: - controlling (S44), at the first server, transmission of the generated stateless reset token to a monitoring function of the second server for use by the second server in generating a stateless reset packet for the QUIC connection to enable the migrating wireless device to reset the QUIC connection. - controlling (S44), at the first server, transmission of the generated stateless reset token to a monitoring function of the second server for use by the second server in generating a stateless reset packet for the QUIC connection to enable the migrating wireless device to reset the QUIC connection.
A machine tool comprising: a headstock provided with a main spindle for gripping a workpiece (W1); a driving unit provided with a feed mechanism extended along a main spindle axis (AX1) to move the headstock in a main spindle axial direction (D1); a supporting bed provided with a guide bush in a removable manner, the guide bush slidably supporting the workpiece (W1) on the front side (S1) of the main spindle ; and a first cover mounted on the headstock to protect a portion of the feed mechanism with respect to the main spindle axial direction (D1); characterized by a second cover removably mounted on the headstock on the front side (S1) of the first cover to protect another portion of the feed mechanism ; wherein the machine tool is configured such that in a non-guide bush mode in which the guide bush is removed from the supporting bed , the second cover is removed from the headstock and detachably attached to the first cover . a headstock provided with a main spindle for gripping a workpiece (W1); a driving unit provided with a feed mechanism extended along a main spindle axis (AX1) to move the headstock in a main spindle axial direction (D1); a supporting bed provided with a guide bush in a removable manner, the guide bush slidably supporting the workpiece (W1) on the front side (S1) of the main spindle ; and a first cover mounted on the headstock to protect a portion of the feed mechanism with respect to the main spindle axial direction (D1); characterized by a second cover removably mounted on the headstock on the front side (S1) of the first cover to protect another portion of the feed mechanism ; wherein the machine tool is configured such that in a non-guide bush mode in which the guide bush is removed from the supporting bed , the second cover is removed from the headstock and detachably attached to the first cover .
A method for determining risk factors for Alzheimer's disease in an individual, comprising: assaying a biological medium obtained from an individual for Biomarker 1 wherein Biomarker 1 is a peptide having an amino acid sequence L/IAENR and has a mass-to-charge ratio (m/z) of 602.3 at a charge state of 1 and wherein the presence of the Biomarker 1 in the individual indicates a risk factor for Alzheimer's disease.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station , a radio resource control, RRC, configuration including information indicating whether a plurality of power headrooms for multiple transmission and reception points, TRPs, is to be reported; identifying a power headroom report, PHR, including the plurality of power headrooms for the multiple TRPs in case that the information indicates that the plurality of power headrooms for the multiple TRPs is to be reported, a cell being associated with the multiple TRPs; and transmitting, to the base station , the PHR including the plurality of power headrooms for the multiple TRPs. receiving, from a base station , a radio resource control, RRC, configuration including information indicating whether a plurality of power headrooms for multiple transmission and reception points, TRPs, is to be reported; identifying a power headroom report, PHR, including the plurality of power headrooms for the multiple TRPs in case that the information indicates that the plurality of power headrooms for the multiple TRPs is to be reported, a cell being associated with the multiple TRPs; and transmitting, to the base station , the PHR including the plurality of power headrooms for the multiple TRPs.
Use of glass sheet having a composition that comprises, in an amount expressed in percentages by total weight of glass: SiO 2 55 - 85% Al 2 O 3 0 - 30% B 2 O 3 0 - 20% Na 2 O 0 - 25% CaO 0 - 20% MgO 0 - 15% K 2 O 0 - 20% BaO 0 - 20% Total iron (expressed in Fe 2 O 3 form) 0.002 - 0.06%; CeOz 0.001% - 1%, in a device using infrared radiation propagating essentially inside said sheet.
A cruise control arrangement for a vehicle , where the cruise control arrangement is provided with a cruise control brake function and where the cruise control arrangement is provided with a set cruise speed value and a set brake cruise speed value, and where the cruise control brake function is active when the vehicle travels downhill, wherein the cruise control arrangement is adapted to activate at least one auxiliary brake when the vehicle speed reaches the set brake cruise speed, wherein the cruise control arrangement is adapted to apply a service brake of the vehicle in order to reduce the speed of the vehicle to a predefined first speed if the vehicle speed exceeds the set brake cruise speed when the at least one auxiliary brake is delivering full brake power, where the predefined first speed is lower than the set brake cruise speed, to deactivate the service brake when the speed of the vehicle is equal to the predefined first speed, to allow the vehicle speed to increase and to exceed the set brake cruise speed again, and to then apply the service brake again in order to reduce the vehicle speed to the predefined first speed, characterized in that the cruise control arrangement is adapted to provide said deactivation of the service brake while controlling the auxiliary brake to continue delivering full brake power.
A composition comprising: (a) 55 - 65% Guaifenesin; (b) 1 - 5% Dextromethorphan or a pharmaceutically acceptable salt thereof; (c) 5 - 15% Naproxen or a pharmaceutically acceptable salt thereof; (d) 1 - 10% Controlled release polymers; (e) 0.1 - 10% Binders; (f) 0.1 - 5% Disintegrants; (g) 5 - 25% Diluents; and (h) up to 1% Lubricants.
A medical system, comprising: a shaft for insertion into an intra-body cavity of a patient; multiple ultrasound transducers , which are distributed over splines that form a basket catheter at a distal end of the shaft , and which are configured to transmit ultrasonic signals in the intra-body cavity and to receive echo signals in response to the ultrasonic signals; and a processor configured to calculate a surface of the intra-body cavity by processing the echo signals using an ellipsoidal back-projection method, which reconstructs ultrasound-wave reflecting surfaces by: providing sub-sets of scattered echo signals distributed over respective sub-sets of constructed ellipsoids; and applying a non-linear minimum operator over each of the sub-sets of distributed echo signals to generate a respective minimum value for each sub-set. a shaft for insertion into an intra-body cavity of a patient; multiple ultrasound transducers , which are distributed over splines that form a basket catheter at a distal end of the shaft , and which are configured to transmit ultrasonic signals in the intra-body cavity and to receive echo signals in response to the ultrasonic signals; and a processor configured to calculate a surface of the intra-body cavity by processing the echo signals using an ellipsoidal back-projection method, which reconstructs ultrasound-wave reflecting surfaces by: providing sub-sets of scattered echo signals distributed over respective sub-sets of constructed ellipsoids; and applying a non-linear minimum operator over each of the sub-sets of distributed echo signals to generate a respective minimum value for each sub-set. providing sub-sets of scattered echo signals distributed over respective sub-sets of constructed ellipsoids; and applying a non-linear minimum operator over each of the sub-sets of distributed echo signals to generate a respective minimum value for each sub-set.
Safety device for a syringe for avoiding stab wounds, said syringe having a syringe body and a piercing means arranged at the distal end of the syringe body , said safety device comprising a sleeve element which extends in an axial direction (X) and encloses the piercing means and the syringe body at least in part, and an inner element , at least portions of which are arranged inside the sleeve element and enclose the piercing means , wherein the inner element comprises a collar portion and a piercing means protection portion that encloses the piercing means , the collar portion being arranged on a distal end region of the syringe body such that it can rotate in a circumferential direction (U) and fastening the safety device to the syringe body , characterised in that a predetermined breaking point being arranged between the collar portion and the piercing means protection portion , as a result of which the piercing means protection portion can be detached from the collar portion before the syringe is used, wherein the collar portion has at least one guide projection which engages in at least one guide slot of the sleeve element , the at least one guide slot having a curved path, wherein the predetermined breaking point is arranged between a distal end face of the collar portion and a proximal end of the piercing means protection portion , wherein the collar portion and the piercing means protection portion form the inner element in one piece.
A tire which, in use, is housed in a static support structure and presents a horizontal force on an object contacting the tire, the tire comprising: an elastomeric material layer comprising an outer diameter circumferential contact surface , wherein the elastomeric material layer has a selected spring constant; a hub coupled to the elastomeric material layer ; and an axle coupled to the hub which, in use, is fixed relative to the static support structure housing the tire ; wherein the tire comprises slots that span the entire width of tire creating a series of continuous through channels with the slots configured to deform in the direction of force presented by the object contacting the outer diameter circumferential contact surface ; characterized in that the slots are circumferentially equally spaced on the tire in concentric layers such that there is more than one slot at each angular position where at least one slot is provided, each at different radii of the tire . an elastomeric material layer comprising an outer diameter circumferential contact surface , wherein the elastomeric material layer has a selected spring constant; a hub coupled to the elastomeric material layer ; and an axle coupled to the hub which, in use, is fixed relative to the static support structure housing the tire ; wherein the tire comprises slots that span the entire width of tire creating a series of continuous through channels with the slots configured to deform in the direction of force presented by the object contacting the outer diameter circumferential contact surface ; characterized in that the slots are circumferentially equally spaced on the tire in concentric layers such that there is more than one slot at each angular position where at least one slot is provided, each at different radii of the tire .
A composition for scavenging hydrogen sulfide from a stream, comprising: (a) a suspension of a metal component; (b) a carrier solvent; and (c) a polymer comprising styrene, propylene and ethylene. (a) a suspension of a metal component; (b) a carrier solvent; and (c) a polymer comprising styrene, propylene and ethylene.
A conductive sheet for an embossed carrier tape for mounting an electronic component, wherein the conductive sheet has a configuration in which a surface layer having conductivity is laminated on at least one surface of a core layer; the core layer and the surface layer each contain a common material constituted of only a combination of three types of polystyrene-based resins of styrene-butadiene copolymer resin, general purpose polystyrene resin, and high impact polystyrene resin; a common material constituting the core layer and a common material constituting the surface layer have the same compounding ratio; the surface layer is formed by kneading carbon black in the common material; and the compounding ratio of the common material is such that the styrene-butadiene copolymer resin is 35 % by weight, and the high impact polystyrene resin is 10 % by weight to 15 % by weight when the entire common material is 100 % by weight. the conductive sheet has a configuration in which a surface layer having conductivity is laminated on at least one surface of a core layer; the core layer and the surface layer each contain a common material constituted of only a combination of three types of polystyrene-based resins of styrene-butadiene copolymer resin, general purpose polystyrene resin, and high impact polystyrene resin; a common material constituting the core layer and a common material constituting the surface layer have the same compounding ratio; the surface layer is formed by kneading carbon black in the common material; and the compounding ratio of the common material is such that the styrene-butadiene copolymer resin is 35 % by weight, and the high impact polystyrene resin is 10 % by weight to 15 % by weight when the entire common material is 100 % by weight.
Method for gesture detection comprising pre-processing and main-processing steps, wherein the pre-processing comprises: - emitting light using a light emitting device (IR_LED), and - generating of directional sensor signals (CH1, CH2, CH3, CH4) as a function of time by detecting a fraction of the emitted light reflected by means of a movable object (OBJ) using a directional light sensor array (LSA), wherein the fraction of the emitted light is detected by means of directional photo-diodes (PD1, PD2, PD3, PD4) of the directional light sensor array (LSA), wherein each photo-diode of the directional photo-diodes (PD1, PD2, PD3, PD4) is used for detecting light in a predominant direction defined by a principal axis of a respective channel (CHL) within the light sensor array (LSA) and is placed in front of an end of the respective channel (CHL), and wherein the main-processing comprises: - calculating coordinates (x_coord, y_coord) as a function of time by using the directional sensor signals (CH1, CH2, CH3, CH4), being indicative of a position of the object (OBJ) with reference to a plane parallel to a principal plane of the light sensor array (LSA), and - detecting a movement of the object (OBJ) depending on the timing of the coordinates (x_coord, y_coord). - emitting light using a light emitting device (IR_LED), and - generating of directional sensor signals (CH1, CH2, CH3, CH4) as a function of time by detecting a fraction of the emitted light reflected by means of a movable object (OBJ) using a directional light sensor array (LSA), wherein the fraction of the emitted light is detected by means of directional photo-diodes (PD1, PD2, PD3, PD4) of the directional light sensor array (LSA), wherein each photo-diode of the directional photo-diodes (PD1, PD2, PD3, PD4) is used for detecting light in a predominant direction defined by a principal axis of a respective channel (CHL) within the light sensor array (LSA) and is placed in front of an end of the respective channel (CHL), and - calculating coordinates (x_coord, y_coord) as a function of time by using the directional sensor signals (CH1, CH2, CH3, CH4), being indicative of a position of the object (OBJ) with reference to a plane parallel to a principal plane of the light sensor array (LSA), and - detecting a movement of the object (OBJ) depending on the timing of the coordinates (x_coord, y_coord).