mhurhangee/patent-ind-claim-en huggingface dataset:
An application server , comprising: at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to: receive a request for setting up a communication session with a user; determine, based on registrations of the user and correlation identities associated with the registrations, a total number of devices registered to the user and determine, for each registered device, one or more access technologies via which the each device is registered; and initiate communication with each registered device based on the determinations such that the communication is initiated with each registered device not more than one time. receive a request for setting up a communication session with a user; determine, based on registrations of the user and correlation identities associated with the registrations, a total number of devices registered to the user and determine, for each registered device, one or more access technologies via which the each device is registered; and initiate communication with each registered device based on the determinations such that the communication is initiated with each registered device not more than one time.
An apparatus, comprising: an injector , including: an inlet port for transferring fluid to an inlet tube ; an inner sleeve , the inner sleeve being part of the inlet port ; an outer sleeve mounted to the inner sleeve , the outer sleeve being part of the inlet port ; and an inlet conduit partially disposed in the outer sleeve , the inlet conduit being part of the inlet port ; wherein fluid flows from the inlet conduit , through the outer sleeve and into the inlet tube ; a cavity formed as part of the outer sleeve ; wherein fluid flows from the inlet conduit , into the cavity , and then into the inlet tube ; characterized in that the apparatus further comprises a volume reduction feature , wherein the volume reduction feature reduces the volume in the cavity formed as part of the outer sleeve ; an upper wall formed as part of the outer sleeve ; wherein the volume reduction feature is formed as part of the upper wall of the outer sleeve . an injector , including: an inlet port for transferring fluid to an inlet tube ; an inner sleeve , the inner sleeve being part of the inlet port ; an outer sleeve mounted to the inner sleeve , the outer sleeve being part of the inlet port ; and an inlet conduit partially disposed in the outer sleeve , the inlet conduit being part of the inlet port ; wherein fluid flows from the inlet conduit , through the outer sleeve and into the inlet tube ; a cavity formed as part of the outer sleeve ; wherein fluid flows from the inlet conduit , into the cavity , and then into the inlet tube ; characterized in that the apparatus further comprises a volume reduction feature , wherein the volume reduction feature reduces the volume in the cavity formed as part of the outer sleeve ; an upper wall formed as part of the outer sleeve ; wherein the volume reduction feature is formed as part of the upper wall of the outer sleeve . an inlet port for transferring fluid to an inlet tube ; an inner sleeve , the inner sleeve being part of the inlet port ; an outer sleeve mounted to the inner sleeve , the outer sleeve being part of the inlet port ; and an inlet conduit partially disposed in the outer sleeve , the inlet conduit being part of the inlet port ; wherein fluid flows from the inlet conduit , through the outer sleeve and into the inlet tube ; a cavity formed as part of the outer sleeve ; wherein fluid flows from the inlet conduit , into the cavity , and then into the inlet tube ; characterized in that the apparatus further comprises a volume reduction feature , wherein the volume reduction feature reduces the volume in the cavity formed as part of the outer sleeve ; an upper wall formed as part of the outer sleeve ; wherein the volume reduction feature is formed as part of the upper wall of the outer sleeve .
Reinforcement for a foundation for an offshore structure , comprising: - at least one substantially vertically extending support element having an upper end and a lower end , the lower end being fixed; - at least one cantilever element which cantilevers at least partially horizontally from the upper end of the support element to an element of the offshore structure supported by a first anchoring portion of an existing foundation ; - wherein the support element and the cantilever element are arrangable on the existing foundation in such a way that a force acting on the element is transmittable at least partially via the cantilever element to the support element and/or to the support element , so that a relief of the existing foundation is achievable, - where the existing foundation is a jacket foundation; - wherein at least two support elements and at least two cantilever elements are arrangable on the existing foundation ; and - wherein the respective upper ends of the at least two support elements are connected to each other by means of at least one carry element . - at least one substantially vertically extending support element having an upper end and a lower end , the lower end being fixed; - at least one cantilever element which cantilevers at least partially horizontally from the upper end of the support element to an element of the offshore structure supported by a first anchoring portion of an existing foundation ; - wherein the support element and the cantilever element are arrangable on the existing foundation in such a way that a force acting on the element is transmittable at least partially via the cantilever element to the support element and/or to the support element , so that a relief of the existing foundation is achievable, - where the existing foundation is a jacket foundation; - wherein at least two support elements and at least two cantilever elements are arrangable on the existing foundation ; and - wherein the respective upper ends of the at least two support elements are connected to each other by means of at least one carry element .
A micro fluidic device comprising a lab-on-a-chip with an upper fluid driving area provided with at least two fluid driving systems and a lower microfluidic mixing area arranged below the driving area for mixing such fluids, both the fluid driving area and the microfluidic mixing area being made of a biocompatible material, wherein the driving area is provided with at least two fluid inlet holes and respective moving plungers , each attached to a driver for moving the plungers forward and backward, wherein the microfluidic mixing area is provided with at least one microchannel for mixing fluids, and the fluid inlet holes and the microchannel are joined by a communication channel , characterised in that it further comprises an external actuator platform, the drivers being connected to the actuator platform which is provided with an electronic board with a processor and a single motor for actuating the drivers , and the fluid inlet holes are provided with a closing plugs inside, wherein the plungers , which are connected to the plugs , are configured to exert pressure on the closing plugs allowing fluid to pass through the communicating channel , the micro fluidic device being provided with a series of physical and/or chemical sensors in the microfluidic mixing area above the microfluidic channels , and means for connecting the sensors to the processor of the actuator platform in order to control the actuation of the drivers based on the data provided by the sensors .
A method for producing high-purity polydeoxyribonucleotide (PDRN) from salmon testes, comprising 1) separating semen and immature testicular regions from the testes of a salmonid fish, 2) grinding the immature testicular regions, followed by dilution with an artificial seminal plasma, 3) treating the dilution with human chorionic gonadotropin (hCG) in an amount of 25 to 200 IU per gram of testes to induce artificial sexual maturation of the testicular cells to sperm, 4) centrifuging the testicular dilution 10 minutes to 2 hours after the hCG treatment and collecting potentially motile sperm, and 5) extracting PDRN from the collected sperm, wherein the salmonid fish is a river salmon caught in an area extending 10 km upstream from the estuary, wherein, in step 1), the immature testicular regions differ in their degree of maturity and have relatively high degrees of maturity representing a sperm motility of at least 0.7%.
A wearable body composition analyzer comprising: an induction part that induces a secretion of a bodily liquid while being in contact with a body part; a collection part that collects the bodily liquid secreted; a sensor part that detects a body composition from the bodily liquid collected by the collection part , the sensor part comprising an operation electrode , a counter electrode arranged to be spaced apart from the operation electrode and an auxiliary electrode arranged to be spaced apart from the operation electrode and the counter electrode ; and a wearable part detachably attached to at least one of the induction part and the collection part , wherein the wearable part is configured to be worn on the body, and where the wearable body composition analyzer further comprises a driving circuit part that applies a signal to the induction part and the sensor part , the operation electrode being operated by the signal applied from the driving circuit part , and where further the sensor part detects a current by a body composition between the operation electrode and the counter electrode , and where the driving circuit part applies a first current or a second current flow to the operation electrode , the first current being smaller than the second current, and the first current being applied until the the operation electrode is electrically connected to the auxiliary electrode via the bodily liquid, whereupon the second current is applied. an induction part that induces a secretion of a bodily liquid while being in contact with a body part; a collection part that collects the bodily liquid secreted; a sensor part that detects a body composition from the bodily liquid collected by the collection part , the sensor part comprising an operation electrode , a counter electrode arranged to be spaced apart from the operation electrode and an auxiliary electrode arranged to be spaced apart from the operation electrode and the counter electrode ; and a wearable part detachably attached to at least one of the induction part and the collection part , wherein the wearable part is configured to be worn on the body, and where the wearable body composition analyzer further comprises a driving circuit part that applies a signal to the induction part and the sensor part , the operation electrode being operated by the signal applied from the driving circuit part , and where further the sensor part detects a current by a body composition between the operation electrode and the counter electrode , and where the driving circuit part applies a first current or a second current flow to the operation electrode , the first current being smaller than the second current, and the first current being applied until the the operation electrode is electrically connected to the auxiliary electrode via the bodily liquid, whereupon the second current is applied.
A method of outputting sound based on an audio signal, the method comprising: - receiving the audio signal, - generating a number of audio sub signals from the audio signal, each audio sub-signal representing the audio signal within a frequency interval within the frequency interval of 100-8000Hz, where the frequency interval of each one of the audio sub signals is not fully included in the frequency interval of any other one of the audio sub signals, - providing a speaker comprising a plurality of sound output loudspeaker transducers each capable of outputting sound in at least the interval of 100-8000Hz, the loudspeaker transducers being positioned within a room or venue, - generating an electrical sub signal for each loudspeaker transducer, each electrical sub signal comprising a predetermined portion of each one of the audio sub signals, and - feeding the electrical sub signals to the loudspeaker transducers, wherein the generation of the electrical sub signals comprises: - altering, over time, the predetermined portions of the audio sub signals in each electrical sub signal and - generating the electrical sub signals with the same or at least substantially the same sound energy, loudness or intensity. - receiving the audio signal, - generating a number of audio sub signals from the audio signal, each audio sub-signal representing the audio signal within a frequency interval within the frequency interval of 100-8000Hz, where the frequency interval of each one of the audio sub signals is not fully included in the frequency interval of any other one of the audio sub signals, - providing a speaker comprising a plurality of sound output loudspeaker transducers each capable of outputting sound in at least the interval of 100-8000Hz, the loudspeaker transducers being positioned within a room or venue, - generating an electrical sub signal for each loudspeaker transducer, each electrical sub signal comprising a predetermined portion of each one of the audio sub signals, and - feeding the electrical sub signals to the loudspeaker transducers, - altering, over time, the predetermined portions of the audio sub signals in each electrical sub signal and - generating the electrical sub signals with the same or at least substantially the same sound energy, loudness or intensity.
A three-dimensional culture method of cells, comprising the steps of: - positioning a plurality of fibers in a flow path spatial part , in which a space surrounded by an inner wall surface from a supply port to a discharge port of a culture solution is used as a flow path, so that a longitudinal direction of each of the fibers is along a direction of the flow path while a predetermined interval is mutually maintained between the fibers ; - placing a plurality of cell clusters in the flow path upon causing the cell clusters to run with a liquid flow of the culture solution supplied in the flow path from the supply port , and - culturing each of the cell clusters, wherein: - a flow rate of the culture solution is controlled, and - a number of the cell clusters to be placed in the flow path and a placement timing thereof are adjusted in accordance with a control state of the culture solution , characterized in that - said culturing of each of the cell clusters is performed by stacking the cell clusters on an outer surface of each of the fibers - a flat plate is provided in a downstream section of the flow path spatial part for serving as a growth origin. - positioning a plurality of fibers in a flow path spatial part , in which a space surrounded by an inner wall surface from a supply port to a discharge port of a culture solution is used as a flow path, so that a longitudinal direction of each of the fibers is along a direction of the flow path while a predetermined interval is mutually maintained between the fibers ; - placing a plurality of cell clusters in the flow path upon causing the cell clusters to run with a liquid flow of the culture solution supplied in the flow path from the supply port , and - culturing each of the cell clusters, - a flow rate of the culture solution is controlled, and - a number of the cell clusters to be placed in the flow path and a placement timing thereof are adjusted in accordance with a control state of the culture solution , - said culturing of each of the cell clusters is performed by stacking the cell clusters on an outer surface of each of the fibers - a flat plate is provided in a downstream section of the flow path spatial part for serving as a growth origin.
A radiation-irradiation device comprising: a leg unit that is capable of traveling on a device-placement surface; a radiation source unit that irradiates a subject with radiation; an arm unit that supports the radiation source unit ; an arm support unit that stands on the leg unit and supports the arm unit ; and a raising/lowering mechanism that raises and lowers the arm unit relative to the arm support unit , wherein the arm unit includes a first arm that is connected to the radiation source unit, a second arm , a first rotational moving portion that connects the first arm to the second arm so as to allow the first and second arms to be rotationally movable relative to each other, and a second rotational moving portion that connects the second arm to the raising/lowering mechanism so as to allow the second arm to be rotationally movable relative to the raising/lowering mechanism , wherein an initial rotational movement position is defined by the first and second arms being folded and the second arm being in an upward position; the radiation-irradiation device further comprising: regulating means comprising means for locking the rotational movement of the second rotational moving portion from the initial rotational movement position, which is performed using the second rotational moving portion , in a case in which the arm unit is positioned at a position other than a first position, that is a highest position to which the arm unit is raised by the raising/lowering mechanism . a leg unit that is capable of traveling on a device-placement surface; a radiation source unit that irradiates a subject with radiation; an arm unit that supports the radiation source unit ; an arm support unit that stands on the leg unit and supports the arm unit ; and a raising/lowering mechanism that raises and lowers the arm unit relative to the arm support unit , wherein the arm unit includes a first arm that is connected to the radiation source unit, a second arm , a first rotational moving portion that connects the first arm to the second arm so as to allow the first and second arms to be rotationally movable relative to each other, and a second rotational moving portion that connects the second arm to the raising/lowering mechanism so as to allow the second arm to be rotationally movable relative to the raising/lowering mechanism , wherein an initial rotational movement position is defined by the first and second arms being folded and the second arm being in an upward position; the radiation-irradiation device further comprising: regulating means comprising means for locking the rotational movement of the second rotational moving portion from the initial rotational movement position, which is performed using the second rotational moving portion , in a case in which the arm unit is positioned at a position other than a first position, that is a highest position to which the arm unit is raised by the raising/lowering mechanism .
Opening apparatus for a motor vehicle door element , comprising an electric drive and a control means , wherein the control means can be displaced by means of the drive and a gear mechanism arranged between the control means and the drive so that a movement of the door element can be made possible, and a sensor for detecting the door movement (S), characterized in that at least one gear mechanism component is pivotably accommodated in the opening apparatus , wherein the pivoting movement of the gear mechanism component can be detected by means of the sensor.
A compound for use in a method for treating glioblastoma multiforme (GBM) characterized by O 6 -methylguanine-DNA methyltransferase (MGMT) protein expression and/or MGMT promoter hypomethylation in a patient, wherein the method comprises administering an effective amount of said compound to said patient; wherein said compound is 1-ethyl-7-(2-methyl-6-(1H-1,2,4-triazol-3-yl)pyridin-3-yl)-3,4-dihydropyrazino[2,3-b]pyrazin-2 -one or a pharmaceutically acceptable salt, stereoisomer or tautomer thereof.
A pharmaceutical composition having anti-neoplastic activity comprising Temozolomide in a weight ratio of from 5 to 20% by weight, and high substituted polysaccharide phosphate in salt form in a ratio of 30 to 80% by weight, and the reminder up to 100% by weight of high substituted polysaccharide phosphate in acidic form , wherein said composition comprises less than 0.5% by weight of 5-aminomidazole-4-carboxamide (AIC) relative to the weight of Temozolomide.
Method for casting prefabricated concrete products with a substantially horizontal slipform casting process, where the concrete mass is fed in at least one feeding stage (2; 22, 23) to a slipform casting mold compacting and defining the product to be cast, wherein at least one part (10; 25) is embedded in the concrete mass via the upper surface of the product to be cast after the at least one concrete mass feeding stage (2; 22, 23) and before the final compaction of the upper surface of the product to be cast, characterized in that the embedding direction of the at least one part (10; 25) in the concrete mass is adjusted before embedding.
A user equipment , comprising: a reception unit configured to receive a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH, and to receive a physical downlink shared channel, PDSCH, and a transmission unit configured to transmit a hybrid automatic repeat request-acknowledgement, HARQ-ACK, for the PDSCH for a secondary cell by assuming that an uplink, UL,-reference uplink, UL,/downlink, DL, configuration of the secondary cell is 1, 2, 3, 4 or 6, in a case that a) the secondary cell is a serving cell with frame structure type 1, b) a primary cell is another serving cell with frame structure type 2, c) a DL-reference UL/DL configuration of each of the primary cell and the secondary cell is 0, 1, 2, 3, 4 or 6, and d) a physical uplink control channel, PUCCH, format 1b with channel selection is configured for transmission of the HARQ-ACK and for the primary cell and the secondary cell, wherein o ACK j is determined based on W UL DAI , the o ACK j is a bit of the HARQ-ACK, and a value of the W UL DAI is determined by a downlink assignment index, DAI, in a downlink control information, DCI, format 0 or 4. a reception unit configured to receive a physical downlink control channel, PDCCH, or an enhanced physical downlink control channel, EPDCCH, and to receive a physical downlink shared channel, PDSCH, and a transmission unit configured to transmit a hybrid automatic repeat request-acknowledgement, HARQ-ACK, for the PDSCH for a secondary cell by assuming that an uplink, UL,-reference uplink, UL,/downlink, DL, configuration of the secondary cell is 1, 2, 3, 4 or 6, in a case that a) the secondary cell is a serving cell with frame structure type 1, b) a primary cell is another serving cell with frame structure type 2, c) a DL-reference UL/DL configuration of each of the primary cell and the secondary cell is 0, 1, 2, 3, 4 or 6, and d) a physical uplink control channel, PUCCH, format 1b with channel selection is configured for transmission of the HARQ-ACK and for the primary cell and the secondary cell, a) the secondary cell is a serving cell with frame structure type 1, b) a primary cell is another serving cell with frame structure type 2, c) a DL-reference UL/DL configuration of each of the primary cell and the secondary cell is 0, 1, 2, 3, 4 or 6, and d) a physical uplink control channel, PUCCH, format 1b with channel selection is configured for transmission of the HARQ-ACK and for the primary cell and the secondary cell, wherein o ACK j is determined based on W UL DAI , the o ACK j is a bit of the HARQ-ACK, and a value of the W UL DAI is determined by a downlink assignment index, DAI, in a downlink control information, DCI, format 0 or 4.