mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, a synchronization signal and physical broadcasting channel, SS/PBCH, block including a master information block, MIB, and receiving, from the base station, remaining minimum system information, RMSI, based on the MIB, wherein the MIB includes configuration information and offset information, wherein a value of the configuration information indicates, according to a table, a combination of: information on a multiplexing pattern for the SS/PBCH block and control resource set, CORESET, a number of resource blocks for the CORESET, a number of symbols for the CORESET, and a resource block, RB, offset between an RB associated with the SS/PBCH block and an RB associated with the CORESET, wherein the table is defined with respect to a subcarrier spacing of the SS/PBCH block and a subcarrier spacing of the CORESET, and wherein the offset information indicates a subcarrier offset between a subcarrier associated with the SS/PBCH block and a subcarrier associated with a resource block grid. receiving, from a base station, a synchronization signal and physical broadcasting channel, SS/PBCH, block including a master information block, MIB, and receiving, from the base station, remaining minimum system information, RMSI, based on the MIB, wherein the MIB includes configuration information and offset information, wherein a value of the configuration information indicates, according to a table, a combination of: information on a multiplexing pattern for the SS/PBCH block and control resource set, CORESET, a number of resource blocks for the CORESET, a number of symbols for the CORESET, and a resource block, RB, offset between an RB associated with the SS/PBCH block and an RB associated with the CORESET, information on a multiplexing pattern for the SS/PBCH block and control resource set, CORESET, a number of resource blocks for the CORESET, a number of symbols for the CORESET, and a resource block, RB, offset between an RB associated with the SS/PBCH block and an RB associated with the CORESET, wherein the table is defined with respect to a subcarrier spacing of the SS/PBCH block and a subcarrier spacing of the CORESET, and wherein the offset information indicates a subcarrier offset between a subcarrier associated with the SS/PBCH block and a subcarrier associated with a resource block grid.
An inductive power transfer transmitter including: a. an enclosure having one or more side walls for accommodating a device comprising a receiver coil to be energised; b. a coil in the one or more side walls and wound around a perimeter of the enclosure for generating an alternating magnetic field within the enclosure; and c. a drive circuit for driving the coil, characterised in that the coil is arranged so that the number of loops of the coil per unit height varies with height towards the top of the one or more sidewalls. a. an enclosure having one or more side walls for accommodating a device comprising a receiver coil to be energised; b. a coil in the one or more side walls and wound around a perimeter of the enclosure for generating an alternating magnetic field within the enclosure; and c. a drive circuit for driving the coil,
Mounting system for mounting a lamp, having two essentially L-shaped receiving rails (4a, 4b), wherein the receiving rails (4a, 4b) respectively have a first leg (5a, 5b), which is configured to be fastened on a front side of a suspended wall or an underside of a suspended ceiling to a respective opposite edge of a cutout of the wall or ceiling, wherein the two receiving rails (4a, 4b) respectively have a second leg (6a, 6b), which is configured to engage in or project into the cutout, and wherein the second legs (6a, 6b) of the receiving rails (4a, 4b) have receptacles (7a, 7b), projections or profiles (7a, 7b) which are configured to support a lamp housing of the lamp without rigidly connecting the lamp housing to the first legs (5a, 5b) of the receiving rails (4a, 4b). wherein the receiving rails (4a, 4b) respectively have a first leg (5a, 5b), which is configured to be fastened on a front side of a suspended wall or an underside of a suspended ceiling to a respective opposite edge of a cutout of the wall or ceiling, wherein the two receiving rails (4a, 4b) respectively have a second leg (6a, 6b), which is configured to engage in or project into the cutout, and wherein the second legs (6a, 6b) of the receiving rails (4a, 4b) have receptacles (7a, 7b), projections or profiles (7a, 7b) which are configured to support a lamp housing of the lamp without rigidly connecting the lamp housing to the first legs (5a, 5b) of the receiving rails (4a, 4b).
A method performed by a first component part of a base station, the first component part comprising one of a central unit and a radio unit, the base station further comprising a second component part, the second component part comprising the other of the central unit and the radio unit, the method comprising: - receiving a user data stream to be transmitted to the second component part, the user data stream comprising a plurality of data samples which have been received by the base station over the air interface - applying first and second scaling factors to the data samples to generate a scaled user data stream, wherein the first scaling factor is updated every first plurality of data samples, wherein the second scaling factor is updated every second plurality of data samples, and wherein the second plurality of data samples is less than the first plurality of data samples; - transmitting the scaled user data stream and an indication of the first and second scaling factors to the second component part, and - updating the first scaling factor based on a maximum value in a set of data samples in the user data stream, wherein the scaled user data stream is transmitted to the second component part over a fronthaul interface, and wherein the set of data samples comprises an input data set for a Fourier transform module or an output data set from a Fourier transform module. - receiving a user data stream to be transmitted to the second component part, the user data stream comprising a plurality of data samples which have been received by the base station over the air interface - applying first and second scaling factors to the data samples to generate a scaled user data stream, wherein the first scaling factor is updated every first plurality of data samples, wherein the second scaling factor is updated every second plurality of data samples, and wherein the second plurality of data samples is less than the first plurality of data samples; - transmitting the scaled user data stream and an indication of the first and second scaling factors to the second component part, and - updating the first scaling factor based on a maximum value in a set of data samples in the user data stream, wherein the scaled user data stream is transmitted to the second component part over a fronthaul interface, and wherein the set of data samples comprises an input data set for a Fourier transform module or an output data set from a Fourier transform module.
A method, comprising the steps of: - receiving a first audio signal; and - generating a digital representation (S1') of the first audio signal by applying a head-related transfer function (HRTF) in a first sound reproduction position; characterized in that: the method further comprises the step of changing the first sound reproduction position to a second sound reproduction position in response to receiving a second audio signal or a precursor signal for a second audio signal. - receiving a first audio signal; and - generating a digital representation (S1') of the first audio signal by applying a head-related transfer function (HRTF) in a first sound reproduction position; the method further comprises the step of changing the first sound reproduction position to a second sound reproduction position in response to receiving a second audio signal or a precursor signal for a second audio signal.
A settable biphasic composition in the form of a flowable paste, comprising: a plurality of individual calcium phosphate particles, wherein the calcium phosphate particles have a portion of the phosphate substituted with silicon, wherein the calcium phosphate particles are 50 to 100 % α-tricalcium phosphate; a liquid capable of supporting calcium phosphate precipitation, wherein the liquid is an aqueous solution; a setting accelerant; a bioabsorbable polymer, or a mixture thereof, that dissolves or degrades in vivo, wherein the calcium phosphate particles are deposited around the bioabsorbable polymer during curing of the biphasic composition, wherein the bioabsorbable polymer is present at 30% by weight or less relative to the silicon-substituted calcium phosphate matrix; one or more therapeutic agents; and wherein the flowable paste sets into a calcium phosphate cement. a plurality of individual calcium phosphate particles, wherein the calcium phosphate particles have a portion of the phosphate substituted with silicon, wherein the calcium phosphate particles are 50 to 100 % α-tricalcium phosphate; a liquid capable of supporting calcium phosphate precipitation, wherein the liquid is an aqueous solution; a setting accelerant; a bioabsorbable polymer, or a mixture thereof, that dissolves or degrades in vivo, wherein the calcium phosphate particles are deposited around the bioabsorbable polymer during curing of the biphasic composition, wherein the bioabsorbable polymer is present at 30% by weight or less relative to the silicon-substituted calcium phosphate matrix; one or more therapeutic agents; and
A compound of formula I wherein R 1' is CH 3; R 1 is methyl, ethyl, CF 3, cyclopropyl, CH 2 OH or R 1' and R 1 may form together with the carbon atom to which they are attached a 1,1-dioxo-thiolan-3-yl ring; R 2 is hydrogen, methyl, ethyl, isopropyl, tertbutyl, cyclopropyl, CH 2 OH or C(CH 3) 2 OH; R 3 is Cl, F, CF 3, cyano, methyl or cyclopropyl; R 4 is hydrogen, methyl or F; or a pharmaceutically acceptable salt or acid addition salt, a racemic mixture, or its corresponding enantiomer and/or optical isomer and/or stereoisomer thereof. R 1' is CH 3; R 1 is methyl, ethyl, CF 3, cyclopropyl, CH 2 OH or R 1' and R 1 may form together with the carbon atom to which they are attached a 1,1-dioxo-thiolan-3-yl ring; R 2 is hydrogen, methyl, ethyl, isopropyl, tertbutyl, cyclopropyl, CH 2 OH or C(CH 3) 2 OH; R 3 is Cl, F, CF 3, cyano, methyl or cyclopropyl; R 4 is hydrogen, methyl or F;
A brake disc configured to be connected to a vehicle axle and to be squeezed between brake pads, comprising: - a central disc body having a first side and a second side, wherein the second side faces in the opposite direction compared to the first side, - a first disc plate and a second disc plate, each disc plate having a wear surface for producing friction when a brake pad is pressed against the wear surface, - wherein the first and the second disc plates are releasably secured to said first side and said second side, respectively, of said central disc body, so as to enable the first and second disc plates to be replaced by other disc plates, - wherein the brake disc has a geometrical centre axis (x), - wherein each one of the first and second disc plates has an inner periphery and an outer periphery extending from the wear surface to an oppositely located disc body facing surface, the inner periphery being located at a radially shorter distance to the geometrical centre axis than the outer periphery, wherein - said central disc body comprises a first ledge mating with the first disc plate, and a second ledge mating with the second disc plate, - wherein each one of the first and second ledges comprises at least a ledge portion which is inclined relative to the geometrical centre axis for counteracting axial movement of the disc plates relative to the central disc body, characterized in that the first ledge mates with the inner periphery of the first disc plate, and a second ledge mates with the inner periphery of the second disc plate. - a central disc body having a first side and a second side, wherein the second side faces in the opposite direction compared to the first side, - a first disc plate and a second disc plate, each disc plate having a wear surface for producing friction when a brake pad is pressed against the wear surface, - wherein the first and the second disc plates are releasably secured to said first side and said second side, respectively, of said central disc body, so as to enable the first and second disc plates to be replaced by other disc plates, - wherein the brake disc has a geometrical centre axis (x), - wherein each one of the first and second disc plates has an inner periphery and an outer periphery extending from the wear surface to an oppositely located disc body facing surface, the inner periphery being located at a radially shorter distance to the geometrical centre axis than the outer periphery, wherein - said central disc body comprises a first ledge mating with the first disc plate, and a second ledge mating with the second disc plate, a first ledge mating with the first disc plate, and a second ledge mating with the second disc plate, - wherein each one of the first and second ledges comprises at least a ledge portion which is inclined relative to the geometrical centre axis for counteracting axial movement of the disc plates relative to the central disc body, characterized in that the first ledge mates with the inner periphery of the first disc plate, and a second ledge mates with the inner periphery of the second disc plate.
A device for squeezing water out of a sponge board having a bow handle arranged on a backing plate, the device comprising a perforated base plate and a pressure element, wherein - the perforated base plate comprises multiple drainage openings for allowing water to drain from an upper surface of the perforated base plate; and - the pressure element comprises a first end, a second end, at least one pressure surface and a recess, the recess is arranged to accommodate the bow handle when the sponge board is arranged on the upper surface of the perforated base plate, the first end is pivotably connected to the perforated base plate by at least one hinge and the second end is distal from the first end and comprises a push handle, and the pressure element may pivot between a first position, wherein the sponge board may be arranged on the upper surface of the perforated base plate, and a second position, wherein the at least one pressure surface is parallel to, and at a predetermined distance from, the upper surface of the perforated plate, characterized in that the device comprises means for changing the predetermined distance of the at least one pressure surface in the second position. - the perforated base plate comprises multiple drainage openings for allowing water to drain from an upper surface of the perforated base plate; and - the pressure element comprises a first end, a second end, at least one pressure surface and a recess, the recess is arranged to accommodate the bow handle when the sponge board is arranged on the upper surface of the perforated base plate, the first end is pivotably connected to the perforated base plate by at least one hinge and the second end is distal from the first end and comprises a push handle, and the pressure element may pivot between a first position, wherein the sponge board may be arranged on the upper surface of the perforated base plate, and a second position, wherein the at least one pressure surface is parallel to, and at a predetermined distance from, the upper surface of the perforated plate, characterized in that the device comprises means for changing the predetermined distance of the at least one pressure surface in the second position.
A method of determining humidity using a field asymmetric ion mobility system, the method comprising: generating ions within a gas sample flowing through the field asymmetric ion mobility system, applying a compensation field and a dispersion field to the generated ions; measuring an output ion current; extracting a spectrum of peak intensity of the measured output as a function of the compensation field and the dispersion field by plotting the measured output ion current as a function of dispersion field against compensation field; determining points of peak intensity within the plot; generating the spectrum of the peak intensity using the determined points; and generating a line graph of peak intensity as a function of the compensation field and the dispersion field; calculating a turning point for the extracted spectrum, wherein the turning point is a stationary point at which a value for the dispersion field stops increasing or decreasing relative to a value of the compensation field; determining operating parameters of the field asymmetric ion mobility system; obtaining, from a database, a plurality of known turning points each of which have an associated humidity value and each of which were obtained using a field asymmetric ion mobility system having operating parameters aligned with the determined operating parameters; and determining a value for the humidity by comparing the calculated turning point with known turning points. generating ions within a gas sample flowing through the field asymmetric ion mobility system, applying a compensation field and a dispersion field to the generated ions; measuring an output ion current; extracting a spectrum of peak intensity of the measured output as a function of the compensation field and the dispersion field by plotting the measured output ion current as a function of dispersion field against compensation field; determining points of peak intensity within the plot; generating the spectrum of the peak intensity using the determined points; and generating a line graph of peak intensity as a function of the compensation field and the dispersion field; plotting the measured output ion current as a function of dispersion field against compensation field; determining points of peak intensity within the plot; generating the spectrum of the peak intensity using the determined points; and generating a line graph of peak intensity as a function of the compensation field and the dispersion field; calculating a turning point for the extracted spectrum, wherein the turning point is a stationary point at which a value for the dispersion field stops increasing or decreasing relative to a value of the compensation field; determining operating parameters of the field asymmetric ion mobility system; obtaining, from a database, a plurality of known turning points each of which have an associated humidity value and each of which were obtained using a field asymmetric ion mobility system having operating parameters aligned with the determined operating parameters; and determining a value for the humidity by comparing the calculated turning point with known turning points.
A pre-form for a liquid dispensing device of the bag-in-bag type, comprising: an inner layer; and an outer layer, wherein the inner and outer layers are sealably connected at a bottom portion and at a top portion of the pre-form, and wherein the inner layer and the outer layer are made by bi-injection molding, characterized in that: the inner container is molded first, a hole is left in the bottom of the inner container, and the outer container is overmolded onto the inner container, and the hole in the bottom of the inner container is filled by a vertical protrusion from the inside bottom of the outer container, thus joining the two containers. an inner layer; and an outer layer, wherein the inner and outer layers are sealably connected at a bottom portion and at a top portion of the pre-form, and wherein the inner layer and the outer layer are made by bi-injection molding, characterized in that: the inner container is molded first, a hole is left in the bottom of the inner container, and the outer container is overmolded onto the inner container, and the hole in the bottom of the inner container is filled by a vertical protrusion from the inside bottom of the outer container, thus joining the two containers. the inner container is molded first, a hole is left in the bottom of the inner container, and the outer container is overmolded onto the inner container, and the hole in the bottom of the inner container is filled by a vertical protrusion from the inside bottom of the outer container, thus joining the two containers.
A system to carry out a floor related action, the system comprising: - an animal enclosure for detaining at least one animal and provided with an enclosure floor surface, - a first vehicle to carry out the floor related action, wherein the first vehicle is configured to autonomously navigate along at least one planned route over the enclosure floor surface or is configured to autonomously navigate within at least one planned area of the enclosure floor surface, and - a feed providing device to provide feed to the animal, characterized in that the system comprises a first communication device configured to transmit a communication signal representative for an actual or planned feeding action of the feed providing device, the first vehicle comprises a second communication device configured to receive the communication signal representative for the actual or planned feeding action, and the first vehicle is capable to adapt the planned route or planned area on the basis of the communication signal representative for the actual or planned feeding action. - an animal enclosure for detaining at least one animal and provided with an enclosure floor surface, - a first vehicle to carry out the floor related action, wherein the first vehicle is configured to autonomously navigate along at least one planned route over the enclosure floor surface or is configured to autonomously navigate within at least one planned area of the enclosure floor surface, and - a feed providing device to provide feed to the animal,
A communication method, comprising: saving virtual network information comprising host information in a virtual network table by a software defined network, SDN, controller; receiving, by the SDN controller from a SDN switch (20a, 20b), a forwarding request message comprising at least a header portion of a layer-2 packet; determining, by the SDN controller, whether a source host and a destination host of the layer-2 packet are in the same virtual network according to the virtual network table; characterised in that the method further comprises: if it is determined that the source host and the destination host are not in the same virtual network: dropping, by the SDN controller, the layer-2 packet, wherein the host information comprises the MAC address of the hosts for determining whether the source host and the destination host are in the same virtual network. saving virtual network information comprising host information in a virtual network table by a software defined network, SDN, controller; receiving, by the SDN controller from a SDN switch (20a, 20b), a forwarding request message comprising at least a header portion of a layer-2 packet; determining, by the SDN controller, whether a source host and a destination host of the layer-2 packet are in the same virtual network according to the virtual network table; characterised in that the method further comprises: if it is determined that the source host and the destination host are not in the same virtual network: dropping, by the SDN controller, the layer-2 packet, wherein the host information comprises the MAC address of the hosts for determining whether the source host and the destination host are in the same virtual network. if it is determined that the source host and the destination host are not in the same virtual network: dropping, by the SDN controller, the layer-2 packet, wherein the host information comprises the MAC address of the hosts for determining whether the source host and the destination host are in the same virtual network.