mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications by a user equipment, UE, comprising: detecting at least first downlink control information, DCI, and second DCI that both indicate same or similar scheduling information for a common uplink data transmission or a downlink data transmission; characterized by determining the second DCI is a repetition of the first DCI if values of each field of the first and second DCIs are the same, wherein the determination is based on: a PUCCH resource indicator, PRI, in the DCI; and at least one of: a number of control channel elements, CCEs, of a control resource set, CORESET, that each DCI is received, or an index of a first CCE of each DCI; selecting, based at least in part on determining the second DCI is a repetition of the first DCI, at least one of the first and second DCI to use for determining scheduling parameters to use for the uplink data transmission, or for reception of the downlink data transmission, or for an uplink control information, UCI, transmission to provide feedback for the downlink data transmission; and utilizing the scheduling parameters to at least one of process the DL data transmission or send the uplink data transmission or UCI transmission. detecting at least first downlink control information, DCI, and second DCI that both indicate same or similar scheduling information for a common uplink data transmission or a downlink data transmission; characterized by determining the second DCI is a repetition of the first DCI if values of each field of the first and second DCIs are the same, wherein the determination is based on: a PUCCH resource indicator, PRI, in the DCI; and at least one of: a number of control channel elements, CCEs, of a control resource set, CORESET, that each DCI is received, or an index of a first CCE of each DCI; a PUCCH resource indicator, PRI, in the DCI; and at least one of: a number of control channel elements, CCEs, of a control resource set, CORESET, that each DCI is received, or an index of a first CCE of each DCI; selecting, based at least in part on determining the second DCI is a repetition of the first DCI, at least one of the first and second DCI to use for determining scheduling parameters to use for the uplink data transmission, or for reception of the downlink data transmission, or for an uplink control information, UCI, transmission to provide feedback for the downlink data transmission; and utilizing the scheduling parameters to at least one of process the DL data transmission or send the uplink data transmission or UCI transmission.
Multi-battery adapter for providing an electrical connection between at least two traction batteries (40, 50) on the one hand and a drive unit of an electric bicycle on the other hand, comprising at least two battery connectors (22, 24), wherein the at least two battery connectors (22, 24) are electrically connectable to a traction battery (40, 50), respectively, wherein a first battery connector is electrically connectable to a first traction battery and a second battery connector is electrically connectable to a second traction battery a control unit comprising an independent battery management module, the battery management module being connectable to the first traction battery and to the second traction battery via respectively one battery signal line (46, 56) of the multi-battery adapter, and a supply switch, wherein the supply switch can be controlled by the battery management module in such a way that an electrical supply connection can be established between the drive unit and the first traction battery and/or the second traction battery, characterized in that the multi-battery adapter has a drive unit connector which can be electrically connected to the drive unit, and the battery management module can be connected to the drive unit via a single drive unit signal line of the multi-battery adapter. a control unit comprising an independent battery management module, the battery management module being connectable to the first traction battery and to the second traction battery via respectively one battery signal line (46, 56) of the multi-battery adapter, and a supply switch, wherein the supply switch can be controlled by the battery management module in such a way that an electrical supply connection can be established between the drive unit and the first traction battery and/or the second traction battery, characterized in that the multi-battery adapter has a drive unit connector which can be electrically connected to the drive unit, and the battery management module can be connected to the drive unit via a single drive unit signal line of the multi-battery adapter.
A handheld blower device for the manual pneumatic drying of surfaces by a user of the handheld blower device, comprising a flat nozzle device for ejecting compressed air from the handheld blower device onto the surface to be dried, a handle region, in particular a handle for manually gripping and guiding the flat nozzle device over the surface to be dried, and a conveying device for conveying the compressed air to the flat nozzle device, whereby the flat nozzle device is designed with a flat nozzle, and the conveying device is designed with a stationarily arranged, in particular fixedly arranged, high-pressure blower, characterized in that a volume flow of 200 to 1000 m 3 /h and a flow rate of 50 to 300 m/s is provided with the high-pressure blower by the flat nozzle device.
A aqueous culture medium composition, wherein said culture medium composition is serum-free and comprises: - a thyroid hormone receptor agonist; - a lipid mixture; - a creatine compound and/or a taurine compound; and - a carnitine compound. - a thyroid hormone receptor agonist; - a lipid mixture; - a creatine compound and/or a taurine compound; and - a carnitine compound.
A computer implemented method for determining a baseline for one or more physiological characteristics of a subject, the method comprising: acquiring from a physiological characteristic sensor or a memory unit one or more physiological characteristics of a subject and acquiring from a contextual information device or the memory unit contextual information associated with the subject; detecting a time period in which the subject is in a baseline state, namely a time period in which the acquired one or more physiological characteristics of the subject and the contextual information associated with the subject are within a set range or meet a set condition, wherein the contextual information associated with the subject comprises non-physiological related information that can put any detected change in the acquired one or more physiological characteristics of the subject into context; and determining the baseline for the one or more physiological characteristics of the subject from a value of at least one of the acquired one or more physiological characteristics in the detected time period. acquiring from a physiological characteristic sensor or a memory unit one or more physiological characteristics of a subject and acquiring from a contextual information device or the memory unit contextual information associated with the subject; detecting a time period in which the subject is in a baseline state, namely a time period in which the acquired one or more physiological characteristics of the subject and the contextual information associated with the subject are within a set range or meet a set condition, wherein the contextual information associated with the subject comprises non-physiological related information that can put any detected change in the acquired one or more physiological characteristics of the subject into context; and determining the baseline for the one or more physiological characteristics of the subject from a value of at least one of the acquired one or more physiological characteristics in the detected time period.
An instrumented motion control fluid device, the device being either a support strut isolator or a damper for providing a controlled relative motion between two aircraft rotary wing members, the instrumented motion control fluid device comprising: a first fluid device body; a second fluid device body movably coupled to the first fluid device body; at least one fluid chamber defined inside one of the first fluid device body and the second fluid device body; and wherein instrumented motion control fluid device further includes: a wireless sensing system integrated with at least one of the first fluid device body and the second fluid device body, the wireless sensing system including at least one fluid property sensor in sensing proximity to the fluid chamber and a communications device for wirelessly conveying a measurement made by the fluid property sensor of the fluid chamber to a remote location. a first fluid device body; a second fluid device body movably coupled to the first fluid device body; at least one fluid chamber defined inside one of the first fluid device body and the second fluid device body; and wherein instrumented motion control fluid device further includes: a wireless sensing system integrated with at least one of the first fluid device body and the second fluid device body, the wireless sensing system including at least one fluid property sensor in sensing proximity to the fluid chamber and a communications device for wirelessly conveying a measurement made by the fluid property sensor of the fluid chamber to a remote location. a wireless sensing system integrated with at least one of the first fluid device body and the second fluid device body, the wireless sensing system including at least one fluid property sensor in sensing proximity to the fluid chamber and a communications device for wirelessly conveying a measurement made by the fluid property sensor of the fluid chamber to a remote location.
A coated fiber for a composite article, comprising: a fiber body having at least one fiber surface; and a matrix layer at least partially coating the fiber surface and being applied during formation of the fiber body; wherein the matrix layer has a matrix thickness that is different at different locations on the fiber body; and wherein: the fiber body has a cross-sectional shape including the fiber surface and at least one fiber body corner; the matrix layer having a corner region matrix thickness at the fiber body corner and a surface matrix thickness (156, 158) at the fiber surface; and the corner region matrix thickness being greater than the surface matrix thickness (156, 158) by at least approximately 10 percent. a fiber body having at least one fiber surface; and a matrix layer at least partially coating the fiber surface and being applied during formation of the fiber body; wherein the matrix layer has a matrix thickness that is different at different locations on the fiber body; and wherein: the fiber body has a cross-sectional shape including the fiber surface and at least one fiber body corner; the matrix layer having a corner region matrix thickness at the fiber body corner and a surface matrix thickness (156, 158) at the fiber surface; and the corner region matrix thickness being greater than the surface matrix thickness (156, 158) by at least approximately 10 percent. the fiber body has a cross-sectional shape including the fiber surface and at least one fiber body corner; the matrix layer having a corner region matrix thickness at the fiber body corner and a surface matrix thickness (156, 158) at the fiber surface; and the corner region matrix thickness being greater than the surface matrix thickness (156, 158) by at least approximately 10 percent.
A sensor control device configured to be mounted in a mobile object capable of acquiring a current location and an orientation of the mobile object and configured to control a sensor having an emitting unit configured to emit light toward a predetermined region and a light receiving unit configured to receive reflected light of the emitted light, the sensor control device comprising: a map information acquiring unit configured to acquire map information corresponding to the current location and the orientation of the mobile object; characterized by an adjustment unit configured to adjust a light receiving level of a light receiving signal of the light receiving unit, wherein the adjustment unit is configured to determine, based on the map information, a region which is estimated to be a road surface for which the light receiving level with respect to the light receiving signal is to be adjusted. a map information acquiring unit configured to acquire map information corresponding to the current location and the orientation of the mobile object; characterized by an adjustment unit configured to adjust a light receiving level of a light receiving signal of the light receiving unit, wherein the adjustment unit is configured to determine, based on the map information, a region which is estimated to be a road surface for which the light receiving level with respect to the light receiving signal is to be adjusted.
A microfluidic flow device comprising: (a) a first layer comprising a plurality of gas channels; (b) a distensible membrane coupled with the first layer; (c) a plurality of support structures embedded in the distensible membrane, the plurality of support structures distributed evenly along the length of the plurality of gas channels; and (d) a second layer comprising a plurality of blood channels and coupled with the distensible membrane, the plurality of blood channels separated from the plurality of gas channels by the distensible membrane, the plurality of blood channels comprising: (i) a cross-sectional area defined in the second layer, a shape of the cross-sectional area being configured to oscillate along a length of the plurality of blood channels by pressurizing, with a gas, the plurality of gas channels to distend the distensible membrane. (a) a first layer comprising a plurality of gas channels; (b) a distensible membrane coupled with the first layer; (c) a plurality of support structures embedded in the distensible membrane, the plurality of support structures distributed evenly along the length of the plurality of gas channels; and (d) a second layer comprising a plurality of blood channels and coupled with the distensible membrane, the plurality of blood channels separated from the plurality of gas channels by the distensible membrane, the plurality of blood channels comprising: (i) a cross-sectional area defined in the second layer, a shape of the cross-sectional area being configured to oscillate along a length of the plurality of blood channels by pressurizing, with a gas, the plurality of gas channels to distend the distensible membrane. (i) a cross-sectional area defined in the second layer, a shape of the cross-sectional area being configured to oscillate along a length of the plurality of blood channels by pressurizing, with a gas, the plurality of gas channels to distend the distensible membrane.
A multirotor wind turbine comprising: - a tower extending in a vertical direction from a tower bottom to a tower top (2"); - at least two energy generating units, each energy generating unit holding a rotor defining a rotor plane, and each energy generating unit comprising a drive train driven by the rotor, and - a load carrying structure extending transverse to the vertical direction and arranged to carry the at least two energy generating units, the load carrying structure being carried rotationally by the tower via a yaw arrangement, the multirotor wind turbine further comprising a platform forming an upwards facing plane working surface above the tower top (2"), wherein the working surface is asymmetric relative to the tower top to thereby define an offset in horizontal direction between the geometric centre of the working surface and the geometric centre of a cross section transverse to the tower top. - a tower extending in a vertical direction from a tower bottom to a tower top (2"); - at least two energy generating units, each energy generating unit holding a rotor defining a rotor plane, and each energy generating unit comprising a drive train driven by the rotor, and - a load carrying structure extending transverse to the vertical direction and arranged to carry the at least two energy generating units, the load carrying structure being carried rotationally by the tower via a yaw arrangement,
A trainable transceiver for selectively transmitting commands associated with a single channel, comprising: a channel configured to be trained to control one or more functions of a remote device; an electronic display configured to display one or more container elements; a container element of the electronic display comprising a first soft key and a second soft key, wherein the container element is associated with the channel, wherein the first soft key is configured to control a first function of the remote device, and wherein the second soft key is configured to control a second function of the remote device; characterised in that the trainable transceiver comprises: a comparator module configured to determine that a first message characteristic of a first message to control the first function of the remote device is similar to a second message characteristic of a second message to control the second function of the remote device; and an interface module to set the channel to control the first function and the second function based on the determination that the first message characteristic of the first message to control the first function of the remote device is similar to the second message characteristic of the second message to control the second function of the remote device. a channel configured to be trained to control one or more functions of a remote device; an electronic display configured to display one or more container elements; a container element of the electronic display comprising a first soft key and a second soft key, wherein the container element is associated with the channel, wherein the first soft key is configured to control a first function of the remote device, and wherein the second soft key is configured to control a second function of the remote device; characterised in that the trainable transceiver comprises: a comparator module configured to determine that a first message characteristic of a first message to control the first function of the remote device is similar to a second message characteristic of a second message to control the second function of the remote device; and an interface module to set the channel to control the first function and the second function based on the determination that the first message characteristic of the first message to control the first function of the remote device is similar to the second message characteristic of the second message to control the second function of the remote device. a comparator module configured to determine that a first message characteristic of a first message to control the first function of the remote device is similar to a second message characteristic of a second message to control the second function of the remote device; and an interface module to set the channel to control the first function and the second function based on the determination that the first message characteristic of the first message to control the first function of the remote device is similar to the second message characteristic of the second message to control the second function of the remote device.
EMI shielding device for mounting on a base, including a plurality of elements arranged in a row wherein two adjacent elements are interconnected, at least one element including a clamping section with a bend (14.3), a first clamping segment (14.2) on one side of the bend (14.3) and a second clamping segment (14.1) on another side of the bend (14.3) for clamping the device onto the base between the two clamping segments (14.1, 14.2), wherein said at least one element includes a snapping member formed by a section of the first clamping segment (14.2) protruding towards the second clamping segment (14.1) for latching into a recess (99.1, 99.2, 99.3, 99.4) of the base and for locking the EMI shielding device on the base, characterized in that at least one element includes a shielding section arranged at an end section of the second clamping segment (14.1), the shielding section includes an arcuate section facing away from the snapping member and pointing back to the bend of the clamping section and in that all elements are identical in shape and size.
Valve-type arrester having a plurality of discharging resistors and having a plurality of heat sinks for dissipating heat from the interior of the valve-type arrester in an area surrounding the valve-type arrester, wherein - each heat sink has a circular-cylindrical main body, the surface of said main body having a base surface, a top surface which is parallel to the base surface, and a casing surface which connects the base surface and the top surface, - and each heat sink is arranged between two discharging resistors, - so that the top surface and the base surface of each heat sink are each in thermal contact with a discharging resistor, - each heat sink has a plurality of fins which are arranged on the main body, - each fin is arranged on the casing surface of the main body, - and a surface of each fin of each heat sink forms an outer surface of the valve-type arrester, characterized in that each fin is of sheet-like design and forms an oblique inclination angle, which is different from 90 degrees, with a plane which is parallel to the base surface of the main body, and in that insulating elements are provided which at least partially surround the discharging resistors and electrically insulate said discharging resistors from an area surrounding the valve-type arrester. - each heat sink has a circular-cylindrical main body, the surface of said main body having a base surface, a top surface which is parallel to the base surface, and a casing surface which connects the base surface and the top surface, - and each heat sink is arranged between two discharging resistors, - so that the top surface and the base surface of each heat sink are each in thermal contact with a discharging resistor, - each heat sink has a plurality of fins which are arranged on the main body, - each fin is arranged on the casing surface of the main body, - and a surface of each fin of each heat sink forms an outer surface of the valve-type arrester,
A method, comprising: receiving data from a submersible remote operated vehicle, i.e., "ROV" about the operation of an arm of the ROV; and automatically controlling, based on the data, movement of the arm relative to a target; where receiving data comprises receiving data from a camera, the data comprising an image of an alignment fiducial associated with the target; and where automatically controlling movement of the arm comprises automatically controlling the movement of the arm to align the arm relative to the target. receiving data from a submersible remote operated vehicle, i.e., "ROV" about the operation of an arm of the ROV; and automatically controlling, based on the data, movement of the arm relative to a target; where receiving data comprises receiving data from a camera, the data comprising an image of an alignment fiducial associated with the target; and where automatically controlling movement of the arm comprises automatically controlling the movement of the arm to align the arm relative to the target.