mhurhangee/patent-ind-claim-en huggingface dataset:
An implantable infusion device, comprising: a housing ; a refill chamber arranged within the housing , the refill chamber being accessible through a refill port ; a self-sealing external septum disposed at the refill port which forms an access opening of an upper chamber in the refill chamber ; a sensor arranged at the refill chamber ; and a processor operatively connected to the sensor and configured, in response to a signal received from the sensor , to detect a presence of a needle in the refill chamber , characterized in that the implantable infusion device comprises a self-sealing inner septum disposed within the refill chamber below the external septum which separates the upper chamber from a lower chamber ; and in that the processor is configured to associate a position of a needle opening with the lower chamber or the upper chamber . a housing ; a refill chamber arranged within the housing , the refill chamber being accessible through a refill port ; a self-sealing external septum disposed at the refill port which forms an access opening of an upper chamber in the refill chamber ; a sensor arranged at the refill chamber ; and a processor operatively connected to the sensor and configured, in response to a signal received from the sensor , to detect a presence of a needle in the refill chamber , characterized in that the implantable infusion device comprises a self-sealing inner septum disposed within the refill chamber below the external septum which separates the upper chamber from a lower chamber ; and in that the processor is configured to associate a position of a needle opening with the lower chamber or the upper chamber .
A method for manufacturing a panel of the type comprising a support and a top layer , wherein the top layer comprises a printed motif and a wear layer disposed above said motif , wherein said wear layer comprises PVC, the top layer comprising an inkjet receiving layer and said inkjet receiving layer comprising a content of water absorbing substance below 10%wt and being free from water absorbing mineral particles, wherein the method comprises the step of providing a printing substrate in the form of a thermoplastic foil, the step of coating said printing substrate with said inkjet receiving layer , the step of digitally inkjet printing said motif with a set of water based inks of multiple color on said coated thermoplastic foil, wherein said inks comprise a binding agent and wherein said step of digital inkjet printing comprises one or more printing operations, each of said printing operations being dedicated to print one color, wherein the coated and printed thermoplastic foil is subsequently attached to a substrate, characterized in that the method comprises multiple ink drying steps, wherein each of said drying steps is performed after performing one or more respective printing operations, and wherein each ink drying step is performed after printing a correspondent ink, and in that said binding agent of the ink shows a minimum film forming temperature below 60 °C, preferably below 40°C.
A method for wireless communication, comprising: receiving a request to establish a data network connection for a user equipment, UE, coupled with a mobile network; determining whether a local Internet Protocol, IP, traffic service is permitted for the UE based on a set of stored subscription information pertaining to the UE; identifying a local data network gateway associated with an access point of the mobile network serving the UE for establishing the data network connection if the local IP traffic service is permitted, wherein identifying the local data network gateway further comprises referencing a data set that explicitly correlates local data network gateways with mobile network access points utilizing an identifier of the access point of the mobile network to identify the local data network gateway, wherein the data set is stored at the access point of the mobile network. receiving a request to establish a data network connection for a user equipment, UE, coupled with a mobile network; determining whether a local Internet Protocol, IP, traffic service is permitted for the UE based on a set of stored subscription information pertaining to the UE; identifying a local data network gateway associated with an access point of the mobile network serving the UE for establishing the data network connection if the local IP traffic service is permitted, wherein identifying the local data network gateway further comprises referencing a data set that explicitly correlates local data network gateways with mobile network access points utilizing an identifier of the access point of the mobile network to identify the local data network gateway, wherein the data set is stored at the access point of the mobile network.
An aerosol generating device , comprising: an insulator (102; 202; 302; 402) comprising an interior wall (104; 204; 304; 404) and an exterior wall (106; 206; 306; 406) that are separated from one another, a cavity (110; 210; 310; 410) defined within the interior wall (104; 204; 304; 404) in which an aerosol forming substrate can be received, and a heater (112; 212) positioned to heat the aerosol forming substrate when it is received in the cavity (110; 210; 310; 410); a casing that surrounds the insulator (102; 202; 302; 402); and electrical contacts (116; 216; 316; 416) that are connected to the heater (112; 212; 312; 412), wherein at least one of the electrical contacts (116; 216; 316; 416) is mechanically connectable to the casing in order to hold the insulator (102; 202; 302; 402) in place. an insulator (102; 202; 302; 402) comprising an interior wall (104; 204; 304; 404) and an exterior wall (106; 206; 306; 406) that are separated from one another, a cavity (110; 210; 310; 410) defined within the interior wall (104; 204; 304; 404) in which an aerosol forming substrate can be received, and a heater (112; 212) positioned to heat the aerosol forming substrate when it is received in the cavity (110; 210; 310; 410); a casing that surrounds the insulator (102; 202; 302; 402); and electrical contacts (116; 216; 316; 416) that are connected to the heater (112; 212; 312; 412), wherein at least one of the electrical contacts (116; 216; 316; 416) is mechanically connectable to the casing in order to hold the insulator (102; 202; 302; 402) in place.
A method for a first user equipment, UE, to operate in a wireless communication system employing a massive Multiple Input Multiple Output, MIMO, scheme, the method comprising: receiving first information identifying which uplink subframe of a plurality of subframes is assigned for uplink reference signal transmission of a first UE group including the first UE, wherein the uplink subframe identified by the first information is different from an uplink subframe for uplink reference signal transmission of a second UE group other than the first UE group; receiving second information identifying a sequence used for the uplink reference signal of the first UE from a base station, wherein the second information is determined to assign different orthogonal sequences to the UEs of the first UE group; and transmitting the uplink reference signal to the base station after a guard period in the uplink subframe identified by the first information using the sequence identified by the second information, wherein the guard period corresponds to a delay time of uplink reference signal transmission of the second UE group. receiving first information identifying which uplink subframe of a plurality of subframes is assigned for uplink reference signal transmission of a first UE group including the first UE, wherein the uplink subframe identified by the first information is different from an uplink subframe for uplink reference signal transmission of a second UE group other than the first UE group; receiving second information identifying a sequence used for the uplink reference signal of the first UE from a base station, wherein the second information is determined to assign different orthogonal sequences to the UEs of the first UE group; and transmitting the uplink reference signal to the base station after a guard period in the uplink subframe identified by the first information using the sequence identified by the second information, wherein the guard period corresponds to a delay time of uplink reference signal transmission of the second UE group.
Method for operating a heat treatment line for producing, in particular, a precoated metal component, wherein the heat treatment line comprises a heating station which heats the metal component to a component temperature above the austenising temperature and a temperature treatment station connected downstream of the heating station , characterised in that in the heating station an internal temperature between 1000°C and 1300°C is set which is 5-30% above the component temperature and in the temperature treatment station an internal temperature between 800°C and 1000°C prevails which corresponds to the component temperature.
An isolated cell in which expression of a T-cell receptor (TCR) gene is modulated by modification within exon c2 of the T-cell receptor alpha (TCRA) gene, wherein the modification is an insertion and/or deletion within TTGAAA of exon c2 of the TCRA gene, and wherein the isolated cell comprises a pair of zinc finger nucleases (ZFNs) that cleave the TCRA gene, the pair of ZFNs comprising first and second ZFNs, wherein the first ZFN comprises a first cleavage domain or cleavage half-domain, and a zinc finger protein (ZFP) comprising six zinc fingers designated and ordered F1 to F6, each zinc finger comprising a recognition helix region as follows: F1: QSSDLSR (SEQ ID NO:57); F2: QSGNRTT (SEQ ID NO:58); F3: RSANLAR (SEQ ID NO:59); F4: DRSALAR (SEQ ID NO:33); F5: RSDVLSE (SEQ ID NO:60); and F6: KHSTRRV (SEQ ID NO:61); and the second ZFN comprises a second cleavage domain or cleavage half-domain, and a ZFP comprising six zinc fingers designated and ordered F1 to F6, each zinc finger comprising a recognition helix region as follows: F1: TMHQRVE (SEQ ID NO:62); F2: TSGHLSR (SEQ ID NO:63); F3: RSDHLTQ (SEQ ID NO:64); F4: DSANLSR (SEQ ID NO:65); F5: QSGSLTR (SEQ ID NO:66); and F6: AKWNLDA (SEQ ID NO:67) and further wherein the insertion and/or deletion in the TRAC gene is made by the pair of ZFNs and expression of TRAC gene is modulated by the insertion and/or deletion. F1: QSSDLSR (SEQ ID NO:57); F2: QSGNRTT (SEQ ID NO:58); F3: RSANLAR (SEQ ID NO:59); F4: DRSALAR (SEQ ID NO:33); F5: RSDVLSE (SEQ ID NO:60); and F6: KHSTRRV (SEQ ID NO:61); and the second ZFN comprises a second cleavage domain or cleavage half-domain, and a ZFP comprising six zinc fingers designated and ordered F1 to F6, each zinc finger comprising a recognition helix region as follows: F1: TMHQRVE (SEQ ID NO:62); F2: TSGHLSR (SEQ ID NO:63); F3: RSDHLTQ (SEQ ID NO:64); F4: DSANLSR (SEQ ID NO:65); F5: QSGSLTR (SEQ ID NO:66); and F6: AKWNLDA (SEQ ID NO:67) F1: TMHQRVE (SEQ ID NO:62); F2: TSGHLSR (SEQ ID NO:63); F3: RSDHLTQ (SEQ ID NO:64); F4: DSANLSR (SEQ ID NO:65); F5: QSGSLTR (SEQ ID NO:66); and F6: AKWNLDA (SEQ ID NO:67)
An interface device for controlling displaying of a previously made destination call, the interface device is located in an elevator lobby and comprises: - input means configured to receive input information comprising a passengerID, - a controller entity , configured to retrieve the previously made destination call corresponding to the passenger ID, and - at least one display configured to display the retrieved previously made destination call. - input means configured to receive input information comprising a passengerID, - a controller entity , configured to retrieve the previously made destination call corresponding to the passenger ID, and - at least one display configured to display the retrieved previously made destination call.
Ex vivo cultured activated blood cells for use in reducing a glycated haemoglobin level of a patient with type 2 diabetes mellitus, comprising ex vivo cultured activated peripheral blood mononuclear cells (PBMCs) prepared by a process comprising culturing the PBMCs in a presence of a cytokine to activate the PBMCs, wherein the ex vivo cultured blood cells are autologous, and wherein the cytokine is selected from the group consisting of Interleukin-2 (IL-2), granulocyte-macrophage colony stimulating factor (GM-CSF), and combinations thereof; wherein the use comprises the step of administering 2-20 doses of the PBMCs to the patient over a period of time ranging from 1-26 weeks-wherein a dose of the PBMCs ranges from 1 × 10 5 to 2 × 10 8 cells.
A method of opening a container , the container including a base having a floor portion and an outer wall extending upwardly therefrom, the container further including a lid having a ceiling portion and an outer wall extending downwardly therefrom, a first button extending outwardly through the outer wall of the base , a second button extending outwardly through the outer wall of the lid , the method comprising pressing the first button inwardly toward a center of the container ; pressing the second button inwardly toward the center of the container ; and pivoting the lid with respect to the base to expose a cavity configured to contain product pressing the first button inwardly toward a center of the container ; pressing the second button inwardly toward the center of the container ; and pivoting the lid with respect to the base to expose a cavity configured to contain product
An electric pump comprising: a pump member, an electric motor positioned in a motor housing , including a stator , in which a rotor is rotatably mounted, said rotor comprising a rotor shaft driving the pump member , a motor controller with an inverter positioned within a controller housing and a heat sink , wherein the heat sink is a passive heat exchanger, a thermoelectric generator with one side thermally coupled to the inverter and with another side thermally coupled to the heat sink to generate electric current from a temperature differential between the inverter and the heat sink , characterized in that the upper side of the thermoelectric generator is directly attached to the inverter and the lower side is in contact with the heat sink , wherein the thermoelectric generator is placed in a recess in the heat sink forming a flush surface with the heat sink and the heat sink constitutes a wall of the controller housing . a pump member, an electric motor positioned in a motor housing , including a stator , in which a rotor is rotatably mounted, said rotor comprising a rotor shaft driving the pump member , a motor controller with an inverter positioned within a controller housing and a heat sink , wherein the heat sink is a passive heat exchanger, a thermoelectric generator with one side thermally coupled to the inverter and with another side thermally coupled to the heat sink to generate electric current from a temperature differential between the inverter and the heat sink , characterized in that the upper side of the thermoelectric generator is directly attached to the inverter and the lower side is in contact with the heat sink , wherein the thermoelectric generator is placed in a recess in the heat sink forming a flush surface with the heat sink and the heat sink constitutes a wall of the controller housing .
Composite tube , in particular corrugated tube, comprising a first wall section produced from a first plastic material, a second wall section produced from a second plastic material different from the first plastic material, and a third wall section produced from a third plastic material different from the first plastic material and the second plastic material, the first wall section , the second wall section , and the third wall section being adjacently arranged in a peripheral direction (U) of the composite tube , the third wall section being arranged between the first wall section and the second wall section and connecting the first wall section to the second wall section , and the first wall section , the second wall section , and the third wall section respectively extending in a radial direction (R) of the composite tube over an entire wall thickness (W) thereof.
An integrated diffuser grille for a coil unit comprising: a hub ; a stack diffuser wall ; a plurality of radial spokes extending between the hub and the stack diffuser wall ; a plurality of partial spokes extending inwardly from the stack diffuser wall , wherein a radial length of the plurality of partial spokes is less than a radial length of the plurality of spokes ; and a plurality of circumferential elements arranged between the hub and the stack diffuser wall , the plurality of circumferential elements being connected to the plurality of radial spokes , at least one circumferential element of the plurality of circumferential elements being connected to the plurality of partial spokes ; wherein a cross-section of the plurality of radial spokes has an airfoil-shape and wherein at least one of a spoke pitch angle, camber angle, and chord of the airfoil-shape varies over a radial length of the plurality of spokes ; the integrated diffuser grille being characterised in that at least one circumferential element of the plurality of circumferential elements has a non-uniform configuration about a circumference of the plurality of circumferential elements; and in that a stacking line defined by a mid-chord of the airfoil-shape over the radial length of at least one of the plurality of radial spokes is a straight line. a hub ; a stack diffuser wall ; a plurality of radial spokes extending between the hub and the stack diffuser wall ; a plurality of partial spokes extending inwardly from the stack diffuser wall , wherein a radial length of the plurality of partial spokes is less than a radial length of the plurality of spokes ; and a plurality of circumferential elements arranged between the hub and the stack diffuser wall , the plurality of circumferential elements being connected to the plurality of radial spokes , at least one circumferential element of the plurality of circumferential elements being connected to the plurality of partial spokes ; wherein a cross-section of the plurality of radial spokes has an airfoil-shape and wherein at least one of a spoke pitch angle, camber angle, and chord of the airfoil-shape varies over a radial length of the plurality of spokes ; the integrated diffuser grille being characterised in that at least one circumferential element of the plurality of circumferential elements has a non-uniform configuration about a circumference of the plurality of circumferential elements; and in that a stacking line defined by a mid-chord of the airfoil-shape over the radial length of at least one of the plurality of radial spokes is a straight line.
A computer implemented method for generating a trained model (M2) to be applied to an estimation apparatus for estimating a probability that a value of a predetermined physiological parameter is correctly calculated, the calculation being based on waveform data (B2) acquired from a subject being tested, the method comprising: acquiring first data (H) corresponding to a value of a first physiological parameter that has been correctly calculated from first waveform data (E); inputting second waveform data (B1) to an algorithm automatically calculating a value of a second physiological parameter acquired from input waveform data and to output corresponding second data (P); generating third data (T2) including a training label indicating whether the value of the second physiological parameter corresponding to the second data (P) is a correct answer or an incorrect answer by comparing the second data (P) with the first data (H); and training a neural network by using the second waveform data (B1) and the third data (T2), to generate the trained model (M2) which, when applied to said estimation apparatus, configures the apparatus to estimate said probability. acquiring first data (H) corresponding to a value of a first physiological parameter that has been correctly calculated from first waveform data (E); inputting second waveform data (B1) to an algorithm automatically calculating a value of a second physiological parameter acquired from input waveform data and to output corresponding second data (P); generating third data (T2) including a training label indicating whether the value of the second physiological parameter corresponding to the second data (P) is a correct answer or an incorrect answer by comparing the second data (P) with the first data (H); and training a neural network by using the second waveform data (B1) and the third data (T2), to generate the trained model (M2) which, when applied to said estimation apparatus, configures the apparatus to estimate said probability.
A pump system for a wellbore, comprising: a production tubing disposed in a wellbore; at least two pumps disposed in the production tubing and axially spaced apart from each other, at least one of the at least two pumps removable from the production tubing while the production tubing remains in place in the wellbore; and at least one fluid intake conduit disposed outside the production tubing and inside the wellbore, the at least one fluid intake conduit in communication with an interior of the production tubing below a lower one of the at least two pumps and at a position of an intake of an upper one of the at least two pumps; and at least one fluid discharge conduit disposed outside the tubing and inside the wellbore, the at least one fluid discharge conduit in fluid communication with the interior of the production tubing proximate a discharge of the lower one of the at least two pumps and either proximate an intake of or above the upper one of the at least two pumps. a production tubing disposed in a wellbore; at least two pumps disposed in the production tubing and axially spaced apart from each other, at least one of the at least two pumps removable from the production tubing while the production tubing remains in place in the wellbore; and at least one fluid intake conduit disposed outside the production tubing and inside the wellbore, the at least one fluid intake conduit in communication with an interior of the production tubing below a lower one of the at least two pumps and at a position of an intake of an upper one of the at least two pumps; and at least one fluid discharge conduit disposed outside the tubing and inside the wellbore, the at least one fluid discharge conduit in fluid communication with the interior of the production tubing proximate a discharge of the lower one of the at least two pumps and either proximate an intake of or above the upper one of the at least two pumps.
A method for producing a decorative profiled element, in particular an edge strip for coating the narrow faces of furniture panels, wherein a film of thermoplastic material is produced, wherein the film will be printed and/or is printed with a decorative pattern, wherein a substrate of thermoplastic material is produced by extrusion, characterized in that the printed film is welded directly to the substrate without subsequent application of an adhesive, bonding or sealing layer, forming the decorative profiled element, by welding the film in the course of the extrusion in-line to the substrate while the substrate is still in the hot state.