mhurhangee/ep-ind-claims huggingface dataset:
An aneurysm repair system comprising: at least one stent segment (102, 104, 106), and graft material which is affixed by means of attachment elements to the at least one stent segment to form an endoprosthesis, characterised in that the system includes durability enhancing material affixed to the graft material in selected areas of fixed contact between the stent segment and the graft material, the durability enhancing material being an epoxy material which is applied by soaking through the graft material, and which prevents fibres in the graft material from separating and localises any fractures in the fibres in the selected areas in which the durability enhancing material is affixed to the graft material. at least one stent segment (102, 104, 106), and graft material which is affixed by means of attachment elements to the at least one stent segment to form an endoprosthesis, characterised in that the system includes durability enhancing material affixed to the graft material in selected areas of fixed contact between the stent segment and the graft material, the durability enhancing material being an epoxy material which is applied by soaking through the graft material, and which prevents fibres in the graft material from separating and localises any fractures in the fibres in the selected areas in which the durability enhancing material is affixed to the graft material.
A damper for balancing the movements of a wind turbine, wherein the balancing of the movements is achieved by an aqueous solution contained in a container of the damper, characterized in that the aqueous solution comprises a phosphate.
Domestic service pipe system, which comprises the following components: - solid plastic pipes, composite plastic pipes and/or composite metal/plastic pipes as line pipes (3, 3', 3"); - threadless shaped parts of temperature-resistant plastic and/or stainless steel; and - threaded shaped parts (1, 1'), wherein the connection of the line pipes (3, 3', 3") to the threadless shaped parts and the threaded shaped parts (1, 1') is formed as a press-fit connection with a sliding sleeve (4, 4', 4"), characterized in that the threaded shaped parts (1, 1') consist of stainless steel. - solid plastic pipes, composite plastic pipes and/or composite metal/plastic pipes as line pipes (3, 3', 3"); - threadless shaped parts of temperature-resistant plastic and/or stainless steel; and - threaded shaped parts (1, 1'),
A system, comprising: a hardware processor; and a non-transitory machine-readable storage medium encoded with instructions executable by the hardware processor to perform a method comprising: receiving, at a first one of a plurality of first electronic devices (A1, A3...A19) anchored along a transportation pathway, a first wireless signal transmitted by a second electronic device attached to a vehicle traveling along the transportation pathway; responsive to receiving the first wireless signal, transmitting, from the first one of the first electronic devices (A1, A3...A19), a second wireless signal, wherein the second electronic device determines a location of the vehicle along the transportation pathway according to the second wireless signal; receiving, at the first one of the first electronic devices (A1, A3...A19), a third wireless signal transmitted by the second electronic device, wherein the third wireless signal identifies the determined location of the vehicle; and transmitting, from the first one of the first electronic devices (A1, A3...A19), a fourth wireless signal, wherein the fourth wireless signal identifies the determined location of the vehicle, wherein other ones of the first electronic devices (A1, A3...A19) wirelessly relay fifth wireless signals along the transportation pathway, wherein the fifth wireless signals identify the determined location of the vehicle. receiving, at a first one of a plurality of first electronic devices (A1, A3...A19) anchored along a transportation pathway, a first wireless signal transmitted by a second electronic device attached to a vehicle traveling along the transportation pathway; responsive to receiving the first wireless signal, transmitting, from the first one of the first electronic devices (A1, A3...A19), a second wireless signal, wherein the second electronic device determines a location of the vehicle along the transportation pathway according to the second wireless signal; receiving, at the first one of the first electronic devices (A1, A3...A19), a third wireless signal transmitted by the second electronic device, wherein the third wireless signal identifies the determined location of the vehicle; and transmitting, from the first one of the first electronic devices (A1, A3...A19), a fourth wireless signal, wherein the fourth wireless signal identifies the determined location of the vehicle, wherein other ones of the first electronic devices (A1, A3...A19) wirelessly relay fifth wireless signals along the transportation pathway, wherein the fifth wireless signals identify the determined location of the vehicle.
A spring damper for a motor vehicle powertrain, having a primary part, a secondary part that is rotatably received relative to the primary part in a spring-damped manner, and a first overload protection coupling that is operatively inserted between the secondary part and a hub element and is permanently closed below a limit value of a torque to be transmitted and that, above this limit value, at least in the event of a sudden occurrence of the torque to be transmitted, releases a relative rotation between the secondary part and the hub element, characterised in that a second overload protection coupling is operatively inserted radially inside the first overload protection coupling between an output of the first overload protection coupling and the hub element.
A transceiver (109 1) for a wireless communication system, wherein the transceiver (109 1) is configured to communicate with at least one other transceiver (109 2) of the wireless communication system, wherein the transceiver (109 1) is configured to transmit a data packet on a component carrier to the other transceiver (109 2) of the wireless communication system, wherein the transceiver (109 1) is configured to, if a PPPR value associated with said data packet or with data contained in said data packet indicates a high reliability, to re-transmit said data packet at least once (300,300) on at least one other component carrier. wherein the transceiver (109 1) is configured to communicate with at least one other transceiver (109 2) of the wireless communication system, wherein the transceiver (109 1) is configured to transmit a data packet on a component carrier to the other transceiver (109 2) of the wireless communication system, wherein the transceiver (109 1) is configured to, if a PPPR value associated with said data packet or with data contained in said data packet indicates a high reliability, to re-transmit said data packet at least once (300,300) on at least one other component carrier.
An analytical device for analysing ions comprising: a separator arranged and adapted to separate ions according to a physico-chemical property; an interface, transfer device or region comprising one or more ion guides, each ion guide comprising a plurality of electrodes; a quadrupole rod set mass or mass to charge ratio filter arranged downstream of said interface, transfer device or region; and a control system arranged and adapted: (i) to maintain, at a first time, a first DC voltage or potential gradient along said one or more ion guides so as to transmit a first group of ions which emerges from said separator through said interface, transfer device or region with a first transit time t1; and (ii) to maintain, at a second later time, a second DC voltage or potential gradient along said one or more ion guides so as to transmit a second group of ions which subsequently emerges from said separator through said interface, transfer device or region with a second different transit time t2, wherein t2 > t1; wherein said physico-chemical property comprises ion mobility or differential ion mobility, and said separator comprises an ion mobility separator or a differential ion mobility separator. a separator arranged and adapted to separate ions according to a physico-chemical property; an interface, transfer device or region comprising one or more ion guides, each ion guide comprising a plurality of electrodes; a quadrupole rod set mass or mass to charge ratio filter arranged downstream of said interface, transfer device or region; and a control system arranged and adapted: (i) to maintain, at a first time, a first DC voltage or potential gradient along said one or more ion guides so as to transmit a first group of ions which emerges from said separator through said interface, transfer device or region with a first transit time t1; and (ii) to maintain, at a second later time, a second DC voltage or potential gradient along said one or more ion guides so as to transmit a second group of ions which subsequently emerges from said separator through said interface, transfer device or region with a second different transit time t2, wherein t2 > t1; (i) to maintain, at a first time, a first DC voltage or potential gradient along said one or more ion guides so as to transmit a first group of ions which emerges from said separator through said interface, transfer device or region with a first transit time t1; and (ii) to maintain, at a second later time, a second DC voltage or potential gradient along said one or more ion guides so as to transmit a second group of ions which subsequently emerges from said separator through said interface, transfer device or region with a second different transit time t2, wherein t2 > t1;
A method for producing an aseptic food product, the method comprising mixing, in a mixer unit, ingredients into a mixture comprising - 20-35 wt% fat that comprises any combination of vegetable fat and milk based fat, - 8-12 wt% milk protein, - 0,5-3 wt% thickener, - 0,5-2,5 wt% acidifier comprising or consisting of any combination of Glucono-Delta-Laction and citric acid, - 0,5-4,5 wt% flavorer, and - water that balances the mixture, heat treating the mixture in a heat exchanger, such that a heat treated, aseptic mixture is obtained, and filling heat treated mixture in packages that are aseptically sealed, such that the heat treated mixture forms an aseptic food product inside the package. mixing, in a mixer unit, ingredients into a mixture comprising - 20-35 wt% fat that comprises any combination of vegetable fat and milk based fat, - 8-12 wt% milk protein, - 0,5-3 wt% thickener, - 0,5-2,5 wt% acidifier comprising or consisting of any combination of Glucono-Delta-Laction and citric acid, - 0,5-4,5 wt% flavorer, and - water that balances the mixture, - 20-35 wt% fat that comprises any combination of vegetable fat and milk based fat, - 8-12 wt% milk protein, - 0,5-3 wt% thickener, - 0,5-2,5 wt% acidifier comprising or consisting of any combination of Glucono-Delta-Laction and citric acid, - 0,5-4,5 wt% flavorer, and - water that balances the mixture, heat treating the mixture in a heat exchanger, such that a heat treated, aseptic mixture is obtained, and filling heat treated mixture in packages that are aseptically sealed, such that the heat treated mixture forms an aseptic food product inside the package.
Gas/gas mixer for introducing gas, especially air, into the exhaust gas stream of an internal combustion engine, comprising a mixer body that is elongated in the direction of a body longitudinal axis, wherein a volume of gas to be introduced is formed in the mixer body and a plurality of gas passage openings are provided in a wall of the mixer body, which wall encloses the volume of gas to be introduced, wherein the mixer body is configured with a flattened cross-sectional profile transversely to the body longitudinal axis, wherein a profile cross-sectional axis (P Q) representing the area of maximum width of the cross-sectional profile is displaced in the direction of a profile longitudinal axis (P L) representing the length of the cross-sectional profile between a leading edge of the mixer body and a trailing edge of the mixer body in relation to a longitudinal center of the profile longitudinal axis (P L) in the direction towards the leading edge of the mixer body, characterized in that a ratio of the distance between the profile cross-sectional axis (P Q) and a longitudinal center of the profile longitudinal axis (P L) to the length of the profile longitudinal axis (P L) is in the range of 0.02 to 0.05.
A method for predicting responsiveness to the treatment of cancer with a compound inhibiting p300, comprising using a biological sample derived from a cancer patient, detecting the presence or absence of an inactivating mutation in CBP contained in the biological sample, and determining the patient with the detected inactivating mutation in CBP as responsive to the treatment of cancer with the compound inhibiting p300, wherein the inactivating mutation is a homozygous CBP deletion, a CBP nonsense mutation, or one of the mutations Asn83Thr, Ser893Leu, Arg1446Cys, Trp1472Cys, Asn2175Ser, Glu1835Stop, Asn2111Ser, Leu551Ile, Gly1411Glu, or Ala2044Gly.
A method of fabricating, without the use of a mask, a patterned organic film for a display device or an organic light emitting device, comprising: a) providing a heated non-reactive carrier gas transporting an organic vapor; b) ejecting the heated non-reactive carrier gas transporting an organic vapor through a nozzle block comprising an array of nozzles, with a bulk flow velocity at least as great as the thermal velocity of the molecules, onto a cooled substrate, to deposit a patterned organic layer having a uniform thickness profile (t) and a desired width and wherein elements of the patterned organic layer are deposited by the nozzles in the nozzle block, wherein a nozzle-substrate separation (s) is within a molecular mean free path of the carrier gas; and wherein the patterned organic film has a resolution of one μm (one micrometer) or less. a) providing a heated non-reactive carrier gas transporting an organic vapor; b) ejecting the heated non-reactive carrier gas transporting an organic vapor through a nozzle block comprising an array of nozzles, with a bulk flow velocity at least as great as the thermal velocity of the molecules, onto a cooled substrate, to deposit a patterned organic layer having a uniform thickness profile (t) and a desired width and wherein elements of the patterned organic layer are deposited by the nozzles in the nozzle block,
A mobile terminal, comprising: a modem for communication with a wireless network, the modem being configured for operating in a plurality of different modes (45-48; 61, 62, 66), and a processing device operative to, in response to detecting a trigger event, - perform a mode selection to select a mode from the plurality of modes (45-48; 61, 62, 66) in accordance with at least one constraint (49; 73), the at least one constraint defining which mode or which modes are allowed to be selected as a function of one or several parameters of the mobile terminal, and - control the modem to start operating in the selected mode, characterized in that the plurality of different modes (45-48; 61, 62, 66) comprises modes in which transmissions are repeated until a respective transmission repetition count associated with each respective mode is reached, wherein the selected mode is distinguished from at least one further mode by the transmission repetition count associated with the respective mode, each constraint (49; 73) of the at least one constraint (49; 73) is configured by the wireless network, and the mobile terminal is operative to receive signalling (51; 59) from the wireless network defining a constraint (49; 73) out of the at least one constraint (49; 73). a modem for communication with a wireless network, the modem being configured for operating in a plurality of different modes (45-48; 61, 62, 66), and a processing device operative to, in response to detecting a trigger event, - perform a mode selection to select a mode from the plurality of modes (45-48; 61, 62, 66) in accordance with at least one constraint (49; 73), the at least one constraint defining which mode or which modes are allowed to be selected as a function of one or several parameters of the mobile terminal, and - control the modem to start operating in the selected mode, characterized in that - perform a mode selection to select a mode from the plurality of modes (45-48; 61, 62, 66) in accordance with at least one constraint (49; 73), the at least one constraint defining which mode or which modes are allowed to be selected as a function of one or several parameters of the mobile terminal, and - control the modem to start operating in the selected mode, the plurality of different modes (45-48; 61, 62, 66) comprises modes in which transmissions are repeated until a respective transmission repetition count associated with each respective mode is reached, wherein the selected mode is distinguished from at least one further mode by the transmission repetition count associated with the respective mode, each constraint (49; 73) of the at least one constraint (49; 73) is configured by the wireless network, and the mobile terminal is operative to receive signalling (51; 59) from the wireless network defining a constraint (49; 73) out of the at least one constraint (49; 73).
A hydrogen fuel filling system comprising: a first flow passage through which hydrogen fuel supplied from a pressure accumulator that accumulates hydrogen fuel under pressure passes, the pressure accumulator including a plurality of pressure accumulators (10, 12, and 14) accumulating hydrogen fuel under pressure; a second flow passage through which hydrogen fuel supplied from the pressure accumulator passes, and which is arranged in parallel with the first flow passage; a switching valve (34a and 34b) that switches flow passages selectively from one of the first and second flow passages to another, or that switches flow passages between one and both of the first and second flow passages; and a control circuit that controls opening/closing of the switching valve (34a and 34b), wherein switching is made between the plurality of pressure accumulators (10, 12, and 14), a fuel cell vehicle using hydrogen fuel as a power source is filled with hydrogen fuel while switching the flow passages by the switching valve (34a and 34b) during supply of hydrogen fuel from the pressure accumulator to which switching has been made every time when switching between the plurality of pressure accumulators (10, 12, and 14) is made, and the fuel cell vehicle is filled with hydrogen fuel without using a flow rate adjusting valve in both of a case that the hydrogen fuel passing through the first flow passage and a case that the hydrogen fuel passing through the second flow passage. a first flow passage through which hydrogen fuel supplied from a pressure accumulator that accumulates hydrogen fuel under pressure passes, the pressure accumulator including a plurality of pressure accumulators (10, 12, and 14) accumulating hydrogen fuel under pressure; a second flow passage through which hydrogen fuel supplied from the pressure accumulator passes, and which is arranged in parallel with the first flow passage; a switching valve (34a and 34b) that switches flow passages selectively from one of the first and second flow passages to another, or that switches flow passages between one and both of the first and second flow passages; and a control circuit that controls opening/closing of the switching valve (34a and 34b), wherein switching is made between the plurality of pressure accumulators (10, 12, and 14), a fuel cell vehicle using hydrogen fuel as a power source is filled with hydrogen fuel while switching the flow passages by the switching valve (34a and 34b) during supply of hydrogen fuel from the pressure accumulator to which switching has been made every time when switching between the plurality of pressure accumulators (10, 12, and 14) is made, and the fuel cell vehicle is filled with hydrogen fuel without using a flow rate adjusting valve in both of a case that the hydrogen fuel passing through the first flow passage and a case that the hydrogen fuel passing through the second flow passage.
A metal-rich siliceous composition comprising a metal oxide dispersion including one or more metal oxides, a siliceous material including one or more colloidal silica particles, wherein at least a portion of the metal oxide dispersion is coated with the siliceous material, wherein the metal oxide dispersion includes aluminum oxide or fumed zirconia, and wherein the metal oxide dispersion is from 0.01 weight percent to 99.99 weight percent based on silica.
An optical detection system, comprising: an analog-to-digital conversion block comprising at least one input channel, the ADC block configured to receive an electrical signal obtained from a corresponding photosensitive detector and configured to provide a digital output comprising samples, the samples being a discrete-time representation of the input determined by a conversion resolution and a conversion rate defined by the at least one input channel; and a signal processor circuit configured to receive the digital output from the ADC block and to identify at least one temporal window within the ADC output corresponding to a feature, the signal processor circuit comprising a further digital output to provide an abbreviated representation based on the at least one temporal window including the feature, the further digital output transmitting the abbreviated representation, wherein the signal processor circuit is configured to provide the abbreviated representation based on a first threshold and a second threshold, wherein the signal processor circuit is configured to apply the first threshold to the digital output to preserve samples including and adjacent to samples exceeding the first threshold thereby defining a duration of the at least one temporal window corresponding to the feature and wherein the signal processor circuit is further configured to apply the second threshold to samples within the at least one temporal window thereby defining samples to preserve within the at least one temporal window. an analog-to-digital conversion block comprising at least one input channel, the ADC block configured to receive an electrical signal obtained from a corresponding photosensitive detector and configured to provide a digital output comprising samples, the samples being a discrete-time representation of the input determined by a conversion resolution and a conversion rate defined by the at least one input channel; and a signal processor circuit configured to receive the digital output from the ADC block and to identify at least one temporal window within the ADC output corresponding to a feature, the signal processor circuit comprising a further digital output to provide an abbreviated representation based on the at least one temporal window including the feature, the further digital output transmitting the abbreviated representation, wherein the signal processor circuit is configured to provide the abbreviated representation based on a first threshold and a second threshold, wherein the signal processor circuit is configured to apply the first threshold to the digital output to preserve samples including and adjacent to samples exceeding the first threshold thereby defining a duration of the at least one temporal window corresponding to the feature and wherein the signal processor circuit is further configured to apply the second threshold to samples within the at least one temporal window thereby defining samples to preserve within the at least one temporal window.