mhurhangee/patent-ind-claim-en huggingface dataset:
An external end device adapted to be connected, on one side, to at least one catheter , on which a subcutaneous cuff is applied, and, on the other side, to a lid , or alternatively to flow lines of a treatment apparatus, the external end device comprising: - a casing , including a base delimited by a plurality of side walls , in which there are a distal opening and a pair of proximal openings with respect to said flow lines, and a removable cover on the side walls , - a fitting housed in the casing and having at least one distal part that engages in the at least one catheter , and two proximal tracts , and - a pair of curved pipes each having a distal end inserted on the respective proximal tract of the fitting , and a proximal end wherein the external end device further comprises: - a pair of nozzles equipped with nozzle chambers and inserted in the proximal end of the curved pipes , inside each nozzle chamber being a cap that is adapted to hermetically close the nozzle and is reversibly pierceable, and - a piercing and connecting conduit designed to reversibly pierce the cap and to connect the pair of nozzles to the flow lines of the treatment equipment. - a casing , including a base delimited by a plurality of side walls , in which there are a distal opening and a pair of proximal openings with respect to said flow lines, and a removable cover on the side walls , - a fitting housed in the casing and having at least one distal part that engages in the at least one catheter , and two proximal tracts , and - a pair of curved pipes each having a distal end inserted on the respective proximal tract of the fitting , and a proximal end wherein the external end device further comprises: - a pair of nozzles equipped with nozzle chambers and inserted in the proximal end of the curved pipes , inside each nozzle chamber being a cap that is adapted to hermetically close the nozzle and is reversibly pierceable, and - a piercing and connecting conduit designed to reversibly pierce the cap and to connect the pair of nozzles to the flow lines of the treatment equipment. - a pair of nozzles equipped with nozzle chambers and inserted in the proximal end of the curved pipes , inside each nozzle chamber being a cap that is adapted to hermetically close the nozzle and is reversibly pierceable, and - a piercing and connecting conduit designed to reversibly pierce the cap and to connect the pair of nozzles to the flow lines of the treatment equipment.
A hearing device system comprising at least three devices , wherein the at least three devices are configured to communicate among one another wirelessly via a near field magnetic induction wireless link based on a predetermined communication protocol, wherein the predetermined communication protocol defines a frame comprising at least a first time slot (9; T1, T2) and at least a second time slot (9; T3, T4), wherein at least a first pair of devices of the at least three devices is configured to communicate in the first time slot (9, T1, T2) and at least a second pair of devices (2,3; 4;5) of the at least three devices is configured to communicate in the second time slot (9;T3, T4), and the first pair of devices is configured to transmit in the first time slot (T1, T2) with a first transmit power level and the second pair of devices (2, 3; 4, 5) is configured to transmit in the second time slot (T3, T4) with a second transmit power level which is different to the first transmit power level, characterized in that the first pair of devices comprises first and second hearing aid devices and the second pair of devices comprises the first hearing aid device and a first auxiliary device . wherein the predetermined communication protocol defines a frame comprising at least a first time slot (9; T1, T2) and at least a second time slot (9; T3, T4), wherein at least a first pair of devices of the at least three devices is configured to communicate in the first time slot (9, T1, T2) and at least a second pair of devices (2,3; 4;5) of the at least three devices is configured to communicate in the second time slot (9;T3, T4), and the first pair of devices is configured to transmit in the first time slot (T1, T2) with a first transmit power level and the second pair of devices (2, 3; 4, 5) is configured to transmit in the second time slot (T3, T4) with a second transmit power level which is different to the first transmit power level, characterized in that the first pair of devices comprises first and second hearing aid devices and the second pair of devices comprises the first hearing aid device and a first auxiliary device .
A computer-implemented method comprising: receiving sensor data from sensors of a first vehicle associated with a first person , the sensor data generated by the sensors; applying a machine-learning algorithm to the sensor data to define a driving envelope for an assisted-driving system , the assisted-driving system installed in a second vehicle and configured to take action; and providing the driving envelope to the assisted-driving system installed in the second vehicle, characterized in that the sensor data is received while the first person drives the first vehicle; the driving envelope is specific to the first person or to a type or category of driver corresponding to the first person and is defined as reflecting how the first person drives the first vehicle; and the assisted-driving system installed in the second vehicle controls the second vehicle by providing, whenever it is needed for the assisted-driving system , a respective query for each action to a configuration manager , wherein the driving envelope is provided to the assisted-driving system by the configuration manager in response to each respective query , wherein the assisted-driving system creates a trajectory for the second vehicle by initiating the action, and wherein the driving envelope is used in performing the action based on the trajectory . receiving sensor data from sensors of a first vehicle associated with a first person , the sensor data generated by the sensors; applying a machine-learning algorithm to the sensor data to define a driving envelope for an assisted-driving system , the assisted-driving system installed in a second vehicle and configured to take action; and providing the driving envelope to the assisted-driving system installed in the second vehicle, characterized in that the sensor data is received while the first person drives the first vehicle; the driving envelope is specific to the first person or to a type or category of driver corresponding to the first person and is defined as reflecting how the first person drives the first vehicle; and the assisted-driving system installed in the second vehicle controls the second vehicle by providing, whenever it is needed for the assisted-driving system , a respective query for each action to a configuration manager , wherein the driving envelope is provided to the assisted-driving system by the configuration manager in response to each respective query , wherein the assisted-driving system creates a trajectory for the second vehicle by initiating the action, and wherein the driving envelope is used in performing the action based on the trajectory .
A detergent composition comprising a detersive surfactant and a graft polymer comprising: (A) 50 to 80% of a polymer backbone as a graft base, which is obtainable by polymerization of ethylene oxide, wherein the molecular weight of the polymer backbone Mn in g/mol is within 500 to 1800, and (B) 20 to 50%, of polymeric sidechains (B) grafted onto the polymer backbone, wherein said polymeric sidechains (B) are obtainable by polymerization of at least one vinyl ester monomer (B1), and optionally at least one other monomer (B2), wherein - if present - the weight ratio of monomer (B2) to monomer (B1) is less than 0.5, preferably less than 0.4, more preferably less than 0.3, even more preferably less than 0.2, and most preferably less than 0.1 (with all percentages as weight percent in relation to the total weight of the graft polymer), wherein the product of formula P = [molecular weight of the polymer backbone Mn in g/mol] x [percentage of amount of polymeric sidechains (B) based on total polymer weight, with polymer weight being set to "1" and the percentage of amount of (B) as fraction thereof] is in the range 50 to not more than 600. (A) 50 to 80% of a polymer backbone as a graft base, which is obtainable by polymerization of ethylene oxide, wherein the molecular weight of the polymer backbone Mn in g/mol is within 500 to 1800, and which is obtainable by polymerization of ethylene oxide, wherein the molecular weight of the polymer backbone Mn in g/mol is within 500 to 1800, (B) 20 to 50%, of polymeric sidechains (B) grafted onto the polymer backbone, wherein said polymeric sidechains (B) are obtainable by polymerization of at least one vinyl ester monomer (B1), and optionally at least one other monomer (B2), wherein - if present - the weight ratio of monomer (B2) to monomer (B1) is less than 0.5, preferably less than 0.4, more preferably less than 0.3, even more preferably less than 0.2, and most preferably less than 0.1 (with all percentages as weight percent in relation to the total weight of the graft polymer), wherein the product of formula P = [molecular weight of the polymer backbone Mn in g/mol] x [percentage of amount of polymeric sidechains (B) based on total polymer weight, with polymer weight being set to "1" and the percentage of amount of (B) as fraction thereof] is in the range 50 to not more than 600.
Method for manufacturing a rotor or stator for an electric motor or generator, the rotor comprising a rotor body of a non magnetic material and rotor poles of an electrical steel, the stator comprising a stator body and stator poles of an electrical steel, characterized in that the method comprises the steps of: - providing rotor or stator body laminates with a circumference of one or more straight or curved lines, - providing annular rotor pole laminates with an edge complementary to the outer circumference of the rotor body laminates or annular stator pole laminates with an edge complementary to the inner circumference of the stator body laminates, characterised by - joining the rotor/stator annular pole laminates separately with the respective rotor/stator body laminates, and - cutting or machining the annular pole laminates into separate pole elements by cutting or machining the laminates separately, or - stacking the rotor and stator body laminates joined with the respective annular pole laminates or pole elements followed by cutting or machining the annular pole laminates into separate pole elements. - providing rotor or stator body laminates with a circumference of one or more straight or curved lines, - providing annular rotor pole laminates with an edge complementary to the outer circumference of the rotor body laminates or annular stator pole laminates with an edge complementary to the inner circumference of the stator body laminates, characterised by - joining the rotor/stator annular pole laminates separately with the respective rotor/stator body laminates, and - cutting or machining the annular pole laminates into separate pole elements by cutting or machining the laminates separately, or - stacking the rotor and stator body laminates joined with the respective annular pole laminates or pole elements followed by cutting or machining the annular pole laminates into separate pole elements.
A grease composition comprising a base oil, a thickener and poly(meth)acrylate which contains hydroxyl groups, wherein the thickener is a urea compound formed by the reaction between an isocyanate and primary amine; wherein the urea compound is a compound represented by general formula (I): R 1 -NHCONH-R 2 -NHCONH-R 3 (I) wherein R 1 and R 3 each represents a C 8-12 aliphatic hydrocarbon group, and R 2 represents a C 6-15 divalent aromatic group; and wherein the thickener is present in an amount of from 1 to 20mass%, taking the total grease composition as 100 mass%.
A heating device, comprising a ceramic heating element and a smoking product bearing assembly , wherein, the ceramic heating element comprises a heating body and a heating circuit , the heating body is cylindrical, the heating body is internally provided with a porous channel , and the heating circuit is arranged on the heating body to heat air passing through the porous channel ; the smoking product bearing assembly comprises a ceramic tube and a blocking piece , the blocking piece is arranged in a cavity defined by the preheating tube to divide the cavity into a first cavity suitable for being used for placing a smoking product and a second cavity used for placing at least one part of the ceramic heating element ; and characterised in that the heating device further comprises a cooling tube which is arranged above the ceramic tube and separated from the ceramic tube , the inner diameter of a cavity defined by the cooling tube is identical with that of the first cavity, so that a holder of the smoking product can pass suitably, and the cooling tube is used for cooling smoke passing through the holder. the ceramic heating element comprises a heating body and a heating circuit , the heating body is cylindrical, the heating body is internally provided with a porous channel , and the heating circuit is arranged on the heating body to heat air passing through the porous channel ; the smoking product bearing assembly comprises a ceramic tube and a blocking piece , the blocking piece is arranged in a cavity defined by the preheating tube to divide the cavity into a first cavity suitable for being used for placing a smoking product and a second cavity used for placing at least one part of the ceramic heating element ; and characterised in that the heating device further comprises a cooling tube which is arranged above the ceramic tube and separated from the ceramic tube , the inner diameter of a cavity defined by the cooling tube is identical with that of the first cavity, so that a holder of the smoking product can pass suitably, and the cooling tube is used for cooling smoke passing through the holder.
A method of wireless communication, said method being performed by a user equipment, UE, comprising: receiving (520; 610) a first activation of a first semi-persistent scheduling, SPS, configuration; receiving (520; 620) a second activation of a second SPS configuration; determining (525; 540; 630) a differentiation characteristic between the first SPS configuration and the second SPS configuration, the determining of the differentiation characteristic further comprising determining at least a partial overlap of frequency domain resources or time domain resources of the first SPS configuration and the second SPS configuration; decoding , based on determining the at least a partial overlap of frequency domain resources or time domain resources of the first SPS configuration and the second SPS configuration, a received physical downlink shared channel, PDSCH, using each of the SPS configurations; determining , based on a result of the decoding, that one of the first SPS configuration or the second SPS configuration is the SPS configuration for the received PDSCH based on the differentiation characteristic; and transmitting (560; 650) an acknowledgment of the PDSCH based on the determined SPS configuration. receiving (520; 610) a first activation of a first semi-persistent scheduling, SPS, configuration; receiving (520; 620) a second activation of a second SPS configuration; determining (525; 540; 630) a differentiation characteristic between the first SPS configuration and the second SPS configuration, the determining of the differentiation characteristic further comprising determining at least a partial overlap of frequency domain resources or time domain resources of the first SPS configuration and the second SPS configuration; decoding , based on determining the at least a partial overlap of frequency domain resources or time domain resources of the first SPS configuration and the second SPS configuration, a received physical downlink shared channel, PDSCH, using each of the SPS configurations; determining , based on a result of the decoding, that one of the first SPS configuration or the second SPS configuration is the SPS configuration for the received PDSCH based on the differentiation characteristic; and transmitting (560; 650) an acknowledgment of the PDSCH based on the determined SPS configuration.
A decontamination system, comprising: - a CANDU reactor having a primary heat transport, cooling or water transport system to be decontaminated having a volume V S ; - an injection tank having a volume V I , wherein the injection tank contains a concentrated decontamination reagent for decontamination of the primary heat transport, cooling or water transport system of the CANDU reactor, wherein said concentrated decontamination reagent is an aqueous slurry comprising EDTA and citric acid, wherein the concentration of the EDTA and citric acid in the concentrated decontamination reagent is determined based on the volume V S of the primary heat transport, cooling or water transport system of the CANDU reactor to be decontaminated and the volume V I of reagent that can be injected, wherein said aqueous slurry comprising EDTA at a concentration of ((about 0.6 to about 3.0 g/L) × V s ) ÷ V I and citric acid at a concentration of ((about 0.4 to about 2.2 g/L) × V s ) / V I . - a CANDU reactor having a primary heat transport, cooling or water transport system to be decontaminated having a volume V S ; - an injection tank having a volume V I , wherein the injection tank contains a concentrated decontamination reagent for decontamination of the primary heat transport, cooling or water transport system of the CANDU reactor, wherein said concentrated decontamination reagent is an aqueous slurry comprising EDTA and citric acid, wherein the concentration of the EDTA and citric acid in the concentrated decontamination reagent is determined based on the volume V S of the primary heat transport, cooling or water transport system of the CANDU reactor to be decontaminated and the volume V I of reagent that can be injected, wherein said aqueous slurry comprising EDTA at a concentration of ((about 0.6 to about 3.0 g/L) × V s ) ÷ V I and citric acid at a concentration of ((about 0.4 to about 2.2 g/L) × V s ) / V I .
A method of wireless communication, comprising: receiving , at a first wireless communication device from a second wireless communication device , an Acknowledged, ACK, or Not Acknowledged, NACK, signal in response to initially transmitted data; transmitting , after said receiving, from the first wireless communication device to the second wireless communication device , a first downlink control waveform during a first symbol period of a transmission time interval, TTI, wherein the first downlink control waveform does not contain downlink data indicators related to the type of the data to be sent, wherein the type of data is either new data or retransmission data; determining, after said transmitting and during the first symbol period of the TTI whether the ACK/NACK signal is an ACK signal or a NACK signal; transmitting , after said determining, from the first wireless communication device to the second wireless communication device , a second downlink control waveform during a second symbol period of the TTI, the second symbol period being different than the first symbol period, wherein the second downlink control waveform contains downlink data indicators related to the type of the data to be sent; and transmitting , from the first wireless communication device to the second wireless communication device and in accordance with the first and second downlink control waveforms, the data to be sent. receiving , at a first wireless communication device from a second wireless communication device , an Acknowledged, ACK, or Not Acknowledged, NACK, signal in response to initially transmitted data; transmitting , after said receiving, from the first wireless communication device to the second wireless communication device , a first downlink control waveform during a first symbol period of a transmission time interval, TTI, wherein the first downlink control waveform does not contain downlink data indicators related to the type of the data to be sent, wherein the type of data is either new data or retransmission data; determining, after said transmitting and during the first symbol period of the TTI whether the ACK/NACK signal is an ACK signal or a NACK signal; transmitting , after said determining, from the first wireless communication device to the second wireless communication device , a second downlink control waveform during a second symbol period of the TTI, the second symbol period being different than the first symbol period, wherein the second downlink control waveform contains downlink data indicators related to the type of the data to be sent; and transmitting , from the first wireless communication device to the second wireless communication device and in accordance with the first and second downlink control waveforms, the data to be sent.
A method for selectively connecting mobile devices to 4G and/or 5G networks, comprising the following steps: a) preparing a plurality of isolated 4G and/or 5G networks suited to define a network federation , each of said 4G and/or 5G networks including at least the following components: - a Radio Access Network ; - a PDN Gateway node for a 4G network or a User Plane Function node (UPF) for a 5G network; - an application server ; b) preparing a plurality of mobile devices ; c) connecting said mobile devices to said 4G and/or 5G networks to exchange data traffic with the application server via, at least, said Radio Access Network and said PDN Gateway or UPF node; d) preparing a connectivity network designed to selectively connect the 4G and/or 5G networks to each other; characterized in that it comprises the following steps: e) selecting of a reference PDN Gateway or UPF node associated with a 4G and/or 5G network of the federation , the 4G and 5G network associated with the reference PDN Gateway or UPF node being suited to become the reference network with respect the other 4G and/or 5G networks of the federation ; f) migrating the data traffic associated with all the mobile devices connected to the 4G and/or 5G networks other than the reference network to the application server associated with the reference 4G and/or 5G network which includes the PDN Gateway or UPF node selected in the step e), in said migration step f) the data traffic is forwarded, respectively, via the connectivity network and the reference PDN Gateway or UPF node. a) preparing a plurality of isolated 4G and/or 5G networks suited to define a network federation , each of said 4G and/or 5G networks including at least the following components: - a Radio Access Network ; - a PDN Gateway node for a 4G network or a User Plane Function node (UPF) for a 5G network; - an application server ; - a Radio Access Network ; - a PDN Gateway node for a 4G network or a User Plane Function node (UPF) for a 5G network; - an application server ; b) preparing a plurality of mobile devices ; c) connecting said mobile devices to said 4G and/or 5G networks to exchange data traffic with the application server via, at least, said Radio Access Network and said PDN Gateway or UPF node; d) preparing a connectivity network designed to selectively connect the 4G and/or 5G networks to each other; e) selecting of a reference PDN Gateway or UPF node associated with a 4G and/or 5G network of the federation , the 4G and 5G network associated with the reference PDN Gateway or UPF node being suited to become the reference network with respect the other 4G and/or 5G networks of the federation ; f) migrating the data traffic associated with all the mobile devices connected to the 4G and/or 5G networks other than the reference network to the application server associated with the reference 4G and/or 5G network which includes the PDN Gateway or UPF node selected in the step e), in said migration step f) the data traffic is forwarded, respectively, via the connectivity network and the reference PDN Gateway or UPF node.