mhurhangee/patent-ind-claim-en huggingface dataset:
A method for operating a user equipment, UE, in a carrier aggregation system, the method comprising: receiving (S610) a higher layer signal indicating mapping (CIDX, SCIDX) between a serving cell index of a serving cell and a specific carrier index field, CIF, value, wherein the CIF consists of 3 bits, the specific CIF value is any one of integers from 1 to 7 and the serving cell index is any one of integers from 1 to 31; receiving (S620), through a scheduling cell having a serving cell index equal to 0, downlink control information, DCI, for the serving cell, wherein the DCI comprises the CIF; based on the value of the CIF of the DCI, identifying (S630) the serving cell based on the mapping and on the CIF value of the scheduling cell being 0; and receiving, through the serving cell, data scheduled by the DCI. receiving (S610) a higher layer signal indicating mapping (CIDX, SCIDX) between a serving cell index of a serving cell and a specific carrier index field, CIF, value, wherein the CIF consists of 3 bits, the specific CIF value is any one of integers from 1 to 7 and the serving cell index is any one of integers from 1 to 31; receiving (S620), through a scheduling cell having a serving cell index equal to 0, downlink control information, DCI, for the serving cell, wherein the DCI comprises the CIF; based on the value of the CIF of the DCI, identifying (S630) the serving cell based on the mapping and on the CIF value of the scheduling cell being 0; and receiving, through the serving cell, data scheduled by the DCI.
A method for producing an orthosis for the correction of a malposition of a body part, comprising at least the following steps: - receiving (A) patient data (PD) of at least one body part of a patient, wherein during receiving the body part is kept without the body part being held in an adjustable correction position by a holding device, - determining and/or receiving (B) reference coordinates (RK) of virtual and/or physical target objects on the body part, wherein during determining and/or receiving the body part is kept without the body part being held in an adjustable correction position by a holding device and wherein the target objects represent at least one location on the surface of the body part that is representative for attaching the orthosis on the body part, - individually adapting (C) a digital orthosis model based on the patient data (PD) and the reference coordinates (RK), - manufacturing the orthosis based on the digital orthosis model (MOD) that is adapted in this way, wherein, without the body part being held in an adjustable correction position by a holding device, a load distribution on account of opposing forces exerted by the body part in reaction to correction forces along the digital orthosis model is calculated and/or simulated, and wherein the geometry of the orthosis is optimized in the digital orthosis model in accordance with the calculated and/or simulated load distribution and/or a perforation structure and/or lattice structure in the digital orthosis model is generated in accordance with the calculated and/or simulated load distribution. - receiving (A) patient data (PD) of at least one body part of a patient, wherein during receiving the body part is kept without the body part being held in an adjustable correction position by a holding device, - determining and/or receiving (B) reference coordinates (RK) of virtual and/or physical target objects on the body part, wherein during determining and/or receiving the body part is kept without the body part being held in an adjustable correction position by a holding device and wherein the target objects represent at least one location on the surface of the body part that is representative for attaching the orthosis on the body part, - individually adapting (C) a digital orthosis model based on the patient data (PD) and the reference coordinates (RK), - manufacturing the orthosis based on the digital orthosis model (MOD) that is adapted in this way,
A solid-state imaging device comprising: a solid-state imaging element including a light receiving surface ; a main substrate connected to a surface of the solid-state imaging element on an opposite side to the light receiving surface ; electronic components mounted on the main substrate ; and a sealing resin positioned between the solid-state imaging element and the main substrate , characterized in that the sealing resin is a laminated body of a first sealing resin and a second sealing resin , the first sealing resin is disposed on a solid-state imaging element side and the second sealing resin is disposed on a main substrate side, and a boundary surface between the first sealing resin and the second sealing resin inclines so that a thickness of the first sealing resin is reduced from an inside to an outside of the solid-state imaging device and is inclined from the inside to the outside of the solid-state imaging device . a solid-state imaging element including a light receiving surface ; a main substrate connected to a surface of the solid-state imaging element on an opposite side to the light receiving surface ; electronic components mounted on the main substrate ; and a sealing resin positioned between the solid-state imaging element and the main substrate , characterized in that the sealing resin is a laminated body of a first sealing resin and a second sealing resin , the first sealing resin is disposed on a solid-state imaging element side and the second sealing resin is disposed on a main substrate side, and a boundary surface between the first sealing resin and the second sealing resin inclines so that a thickness of the first sealing resin is reduced from an inside to an outside of the solid-state imaging device and is inclined from the inside to the outside of the solid-state imaging device .
A method of producing a carboxyl group-containing nitrile rubber, the method comprising a coagulation step of coagulating a carboxyl group-containing nitrile rubber component by mixing a monovalent metal salt and a polymer flocculating agent into a carboxyl group-containing nitrile rubber latex, wherein the monovalent metal salt is compounded in an amount of 3 to 25 parts by weight and the polymer flocculating agent is compounded in an amount of 0.01 to 10 parts by weight relative to 100 parts by weight of a rubber solid content in the latex, and a weight ratio of the monovalent metal salt/the polymer flocculating agent is in the range of 10 to 500.
Road sweeping machine system comprising a road sweeping machine and a sweeping unit , wherein the road sweeping machine has: - at least one sweeping means which is configured to move at least one object in its range with respect to the road sweeping machine in such a way that it can be accommodated in the road sweeping machine , - at least one control unit (ECU) which is configured to control at least the road sweeping machine and the at least one sweeping means , - at least one sensing unit which is configured to sense the surroundings and preferably to determine the position of the road sweeping machine , - at least one communication unit which is configured to communicate with an external system (2; 3) in such a way that the road sweeping machine can be guided at least partially autonomously on the basis of information received from the external system (2; 3), - wherein the road sweeping machine is configured to follow, at a defined distance, the sweeping unit which is sensed by the surroundings-sensing unit, and wherein the sweeping unit is configured to move at least one further object from regions outside the range of the sweeping means into the range of the sweeping means , characterized in that the sweeping unit is an autonomously driving sweeping unit comprising a sweeping apparatus . - at least one sweeping means which is configured to move at least one object in its range with respect to the road sweeping machine in such a way that it can be accommodated in the road sweeping machine , - at least one control unit (ECU) which is configured to control at least the road sweeping machine and the at least one sweeping means , - at least one sensing unit which is configured to sense the surroundings and preferably to determine the position of the road sweeping machine , - at least one communication unit which is configured to communicate with an external system (2; 3) in such a way that the road sweeping machine can be guided at least partially autonomously on the basis of information received from the external system (2; 3), - wherein the road sweeping machine is configured to follow, at a defined distance, the sweeping unit which is sensed by the surroundings-sensing unit, and wherein the sweeping unit is configured to move at least one further object from regions outside the range of the sweeping means into the range of the sweeping means , characterized in that the sweeping unit is an autonomously driving sweeping unit comprising a sweeping apparatus .
Gas-insulated high-voltage plug connection having a pressure enclosure , wherein a first part of the enclosure forms a connecting socket and a second part of the enclosure forms a plug , wherein the first and the second part of the enclosure each receive at least one electrical conductor in the enclosure , wherein the electrical conductors each have a contact surface at the end, and one of the electrical conductors has, by virtue of individual conductors running in a suitable fashion, an area with a high degree of flexibility, wherein the contact surface of this electrical conductor is mounted so that it can be moved by means of a length-adjustment element , characterized in that the electrical conductors are power cables which are routed into the enclosure through cable penetration seals , wherein the flexible area of individual conductors is a subarea of the power cable which is routed through the cable penetration seal .
An interconnection for a battery comprising a plurality of cells, the interconnection comprising: an electrically insulating substrate having a first face and a second face ; a heat sink on the first face of the substrate ; and a layer of electrically conducting material on the second face of the substrate , said layer of electrically conducting material providing one or more cell-receiving regions for connection with the plurality of cells; wherein the interconnection is characterised by comprising electrical circuitry mounted on the second face of the substrate , wherein the electrical circuitry is configured to control at least one of a state of charge of one or more of the plurality of cells and the temperature of one or more of the plurality of cells. an electrically insulating substrate having a first face and a second face ; a heat sink on the first face of the substrate ; and a layer of electrically conducting material on the second face of the substrate , said layer of electrically conducting material providing one or more cell-receiving regions for connection with the plurality of cells; wherein the interconnection is characterised by comprising electrical circuitry mounted on the second face of the substrate , wherein the electrical circuitry is configured to control at least one of a state of charge of one or more of the plurality of cells and the temperature of one or more of the plurality of cells.
A composition comprising a culture medium that has been in contact with a mesenchymal stem cell (MSC) and contains compounds released from the MSC for use in a method of treating or preventing vasculopathy in a subject in need thereof, said method comprising administering to the subject a prostacyclin and said composition, further comprising, prior to the administration, contacting the MSC with a prostacyclin to obtain the culture medium, wherein the MSC has increased production of a vascular endothelial growth factor (VEGF) compared to an untreated MSC.
A pellicle for protecting a photomask, the pellicle comprising: a pellicle membrane including nanocrystalline graphene having defects; wherein an amount of oxygen (O) in the nanocrystalline graphene is in a range of 1 at% to 20 at%; and/or wherein an amount of hydrogen (H) in the nanocrystalline graphene is in a range of 1 at% to 20 at%; and/or wherein an amount of nitrogen (N) in the nanocrystalline graphene is in a range of 1 at% to 20 at%. a pellicle membrane including nanocrystalline graphene having defects; wherein an amount of oxygen (O) in the nanocrystalline graphene is in a range of 1 at% to 20 at%; and/or wherein an amount of hydrogen (H) in the nanocrystalline graphene is in a range of 1 at% to 20 at%; and/or wherein an amount of nitrogen (N) in the nanocrystalline graphene is in a range of 1 at% to 20 at%.
A device for separating a stromal-vascular fraction from human or animal tissues, containing a fluid-tight vessel for tissue treatment having and a channel system within side walls of the vessel, wherein the inlet of each channel has recesses and sectoral slots for bayonet connection to the adapter fittings, said vessel for tissue treatment is of a conical shape and divided into two chambers by a microfilter system, the microfilter system contains at least two nylon microfilters, having pore diameters from 10 μm for the lower filter to 500 μm for the upper filter, and filters are separated by polymeric pads, the chambers are hermetically fastened with a bayonet connection through a silicone seal, wherein one chamber, namely a tissue-treatment chamber, is used for tissue treatment and the other chamber, namely a cell-concentrating chamber, is used to concentrate cells, wherein the inner surface of the vessel has a hydrophobic antiadhesive coating; one channel of the channel system opens into the tissue-treatment chamber, another channel of the channel system opens into the cell-concentrating chamber, and the vessel also contains a bacteriological filter configured to equalize pressure inside the device.
A method for providing an adaptive virtual reality, VR, streaming service in an electronic device , the method comprising: determining a bandwidth state of receiving image data from a server; extracting head tracking information including at least one of acceleration information or location information; and determining whether to adapt a quality of the VR streaming service that is being provided based on the bandwidth state, wherein the bandwidth state is determined based on a result of comparing a current bandwidth with a predetermined bandwidth required to provide an entire 360-degree image with high quality; and if it is determined to adapt the quality of the VR streaming service, requesting subsequent image data for the adaptive VR streaming service to the server based on the head tracking information and bandwidth information, wherein image data in an area of interest is requested for transmission with high quality and image data outside the area of interest is requested for transmission with a lower quality, and receiving a 360 degree image containing the subsequent image data from the server. determining a bandwidth state of receiving image data from a server; extracting head tracking information including at least one of acceleration information or location information; and determining whether to adapt a quality of the VR streaming service that is being provided based on the bandwidth state, wherein the bandwidth state is determined based on a result of comparing a current bandwidth with a predetermined bandwidth required to provide an entire 360-degree image with high quality; and if it is determined to adapt the quality of the VR streaming service, requesting subsequent image data for the adaptive VR streaming service to the server based on the head tracking information and bandwidth information, wherein image data in an area of interest is requested for transmission with high quality and image data outside the area of interest is requested for transmission with a lower quality, and receiving a 360 degree image containing the subsequent image data from the server.
A monitoring system comprising: a surgical implant configured for implantation in vivo and including at least one sensing fiber configured to measure a preselected physiological parameter; and a receiving unit in wireless communication with the at least one sensing fiber and configured to receive measurements of the preselected physiological parameter, the surgical implant being characterised in that it is formed from a plurality of fibers, which are knitted or woven, to form a porous layer, and the at least one sensing fiber is incorporated into at least one of the plurality of fibers. a surgical implant configured for implantation in vivo and including at least one sensing fiber configured to measure a preselected physiological parameter; and a receiving unit in wireless communication with the at least one sensing fiber and configured to receive measurements of the preselected physiological parameter, the surgical implant being characterised in that it is formed from a plurality of fibers, which are knitted or woven, to form a porous layer, and the at least one sensing fiber is incorporated into at least one of the plurality of fibers.
A device for maintaining a water level in a humidification component of a respiratory system, said device comprising: a water level control element ; a humidification component having a base and configured for holding a water volume ; a base unit configured to support the humidification component ; at least one sensor incorporated into or coupled with the base unit , positioned external to the humidification component , and coupled with a control module , said at least one sensor configured for sensing water related information in said humidification component and providing said water related information to said control module , the control module configured to utilize said water related information to control an operation of the water level control element ; and characterized by a flow probe coupled to a fluid outlet of the humidification component , the flow probe configured to measure an amount of humidified gas flowing out of the humidification component and an amount of water loss occurring during the humidified gas flow. a water level control element ; a humidification component having a base and configured for holding a water volume ; a base unit configured to support the humidification component ; at least one sensor incorporated into or coupled with the base unit , positioned external to the humidification component , and coupled with a control module , said at least one sensor configured for sensing water related information in said humidification component and providing said water related information to said control module , the control module configured to utilize said water related information to control an operation of the water level control element ; and characterized by a flow probe coupled to a fluid outlet of the humidification component , the flow probe configured to measure an amount of humidified gas flowing out of the humidification component and an amount of water loss occurring during the humidified gas flow.
Coolant pump for the automotive industry, comprising a drive shaft , a coolant pump impeller , which is arranged on the drive shaft at least for conjoint rotation and by means of which coolant can be conveyed into a conveying channel surrounding the coolant pump impeller , a movable control slide , by means of which a flow cross-section of an annular gap between an exit of the coolant pump impeller and the conveying channel can be controlled, a side channel pump having a side channel pump impeller , which is arranged on the drive shaft at least for conjoint rotation, a side channel of the side channel pump , in which a pressure can be generated by rotation of the side channel pump impeller , wherein the side channel has an inlet and an outlet , a pressure channel , by means of which the outlet of the side channel can be fluidically connected to a first pressure chamber of the control slide , a valve , by means of which a flow cross-section of the pressure channel can be closed and opened, characterized in that a connection channel from the side channel into a second pressure chamber is provided between the inlet and the outlet , wherein the second pressure chamber is provided on a side of the control slide facing the coolant pump impeller .
A system for a utility vehicle comprising a compressor , an electric motor and an electronic drive unit , the electric motor driving the compressor , the electric motor and the electronic drive unit having a common housing and the electric motor having a rotor that at least partially encompasses the drive shaft of the compressor , the electric motor having a stator with windings that are spaced apart from one another, the electronic drive unit partially projecting into spaces between the windings , the electronic drive unit having a main printed circuit board and capacitive and inductive components and a cooling element , and the housing having a partition that separates the electronic drive unit from the rotor and the partition having a recess facing in the direction of the windings of the rotor into which the capacitive and inductive components but also the cooling element of the electronic drive unit project.
An interactive media system , comprising: a set of anchors , each anchor in the set of anchors being associated with an interactive audio/video composition, and, each anchor comprising an anchor identifier device that includes an anchor identifier; and an anchor sensor configured to: detect the anchor identifier device of one anchor ; read the anchor identifier device of the detected anchor to obtain the unique anchor identifier from the detected anchor identifier device; and transmit the unique anchor identifier; and a media player configured to: receive the unique anchor identifier from the anchor sensor ; identify one or more playlists associated with the unique anchor identifier the one or more playlists comprising media files and forming the interactive audio/video composition; obtain the one or more playlists; and play the media files of the one or more playlists; CHARACTERIZED IN THAT , the media player is configured to play the media files of the one or more playlists further based on a state of the interactive audio/video composition being played back, and wherein the state of the interactive audio/video composition depends on at least one of: the number of times an anchor from the set of anchors has been detected, the previously detected anchors, the previously removed anchors, and, other anchors being concurrently detected with the detected anchor . a set of anchors , each anchor in the set of anchors being associated with an interactive audio/video composition, and, each anchor comprising an anchor identifier device that includes an anchor identifier; and an anchor sensor configured to: detect the anchor identifier device of one anchor ; read the anchor identifier device of the detected anchor to obtain the unique anchor identifier from the detected anchor identifier device; and transmit the unique anchor identifier; and detect the anchor identifier device of one anchor ; read the anchor identifier device of the detected anchor to obtain the unique anchor identifier from the detected anchor identifier device; and transmit the unique anchor identifier; and a media player configured to: receive the unique anchor identifier from the anchor sensor ; identify one or more playlists associated with the unique anchor identifier the one or more playlists comprising media files and forming the interactive audio/video composition; obtain the one or more playlists; and play the media files of the one or more playlists; receive the unique anchor identifier from the anchor sensor ; identify one or more playlists associated with the unique anchor identifier the one or more playlists comprising media files and forming the interactive audio/video composition; obtain the one or more playlists; and play the media files of the one or more playlists;