mhurhangee/ep-ind-claims huggingface dataset:
A method of handling at least one multiuser channel quality indicator, MU-CQI, set for a communication device, the method being utilized in a communication device and comprising the steps of: receiving information of at least one companion precoding matrix index, PMI, set transmitted by a network; receiving a plurality of PMI sets via a higher layer signaling transmitted by the network; selecting the at least one companion PMI set from the plurality of PMI sets according to the information; determining at least one MU-CQI set according to the at least one companion PMI set, respectively, wherein each MU-CQI of each MU-CQI set of the at least one MU-CQI set is determined according to a corresponding companion PMI of a corresponding companion PMI set of the at least one companion PMI set; and transmitting the at least one MU-CQI set to the network. receiving information of at least one companion precoding matrix index, PMI, set transmitted by a network; receiving a plurality of PMI sets via a higher layer signaling transmitted by the network; selecting the at least one companion PMI set from the plurality of PMI sets according to the information; determining at least one MU-CQI set according to the at least one companion PMI set, respectively, wherein each MU-CQI of each MU-CQI set of the at least one MU-CQI set is determined according to a corresponding companion PMI of a corresponding companion PMI set of the at least one companion PMI set; and transmitting the at least one MU-CQI set to the network.
A manipulation device comprising: a manipulation member with a manipulation body that performs an operation in a manipulation direction according to a manipulation by a manipulator; a support body that freely supports an operation of the manipulation body; and a movable load imparting mechanism that imparts a movable load to the manipulation body; wherein the manipulation body has a movable axis that enables the operation, the movable load imparting mechanism has a movable member that performs the operation by being engaged with the movable axis, a magnetism generating mechanism that faces the movable member with a gap intervening, and a magnetic viscous fluid present in at least part of the gap, viscosity of the magnetic viscous fluid changing according to strength of a magnetic field, the magnetism generating mechanism has a coil that generates a magnetic field by being energized, and also has a first yoke provided so as to enclose the coil and to be disposed on one side of the movable member, the magnetic viscous fluid is filled in a first gap, which is the gap between the first yoke and the movable member, and in the gap, a first buffering layer having hardness lower than hardness of the movable member is provided on at least one of an opposing plane of the first yoke and an opposing plane of the movable member. a manipulation member with a manipulation body that performs an operation in a manipulation direction according to a manipulation by a manipulator; a support body that freely supports an operation of the manipulation body; and a movable load imparting mechanism that imparts a movable load to the manipulation body; wherein the manipulation body has a movable axis that enables the operation, the movable load imparting mechanism has a movable member that performs the operation by being engaged with the movable axis, a magnetism generating mechanism that faces the movable member with a gap intervening, and a magnetic viscous fluid present in at least part of the gap, viscosity of the magnetic viscous fluid changing according to strength of a magnetic field, the magnetism generating mechanism has a coil that generates a magnetic field by being energized, and also has a first yoke provided so as to enclose the coil and to be disposed on one side of the movable member, the magnetic viscous fluid is filled in a first gap, which is the gap between the first yoke and the movable member, and in the gap, a first buffering layer having hardness lower than hardness of the movable member is provided on at least one of an opposing plane of the first yoke and an opposing plane of the movable member.
A wireless frequency tag comprising: a substrate; a loop-shaped antenna pattern, having a chip connecting section to be connected to a chip, that is provided on each face other than sides of long side of the substrate; and a conducting member, which is provided independently of the loop-shaped antenna pattern, that conductively couples a part of the loop-shaped antenna pattern on a side on which the chip connecting section is provided with another part of the loop-shaped antenna pattern on another side opposed to the side on which the chip connecting section is provided. a substrate; a loop-shaped antenna pattern, having a chip connecting section to be connected to a chip, that is provided on each face other than sides of long side of the substrate; and a conducting member, which is provided independently of the loop-shaped antenna pattern, that conductively couples a part of the loop-shaped antenna pattern on a side on which the chip connecting section is provided with another part of the loop-shaped antenna pattern on another side opposed to the side on which the chip connecting section is provided.
A touchscreen having an image-generating layer, a sensor layer and a touch layer which has an external surface and an internal surface, wherein the sensor layer is arranged on the side of the internal surface of the touch layer and wherein, when the external surface is touched with a touch organ, the touch can be measured and evaluated by the sensor layer through the thickness of the touch layer, characterized in that, at least one guide track for the touch organ is machined out of the touch layer from the external surface of the touch layer in the region of the sensor layer and the image-generating layer.
A method comprising: disconnecting electricity service to a site by a service switch; maintaining an electrical connection with a circuit internal to the site via a leakage capacitor connected between a power line communication coupler of a power line communication module of a network communication device and the site side of the service switch when the site is disconnected from electricity service; monitoring the circuit internal to a site for power line communications when the site is disconnected from electricity service; and receiving a power line communication from a device coupled to the circuit internal to the site when the site is disconnected from electricity service. disconnecting electricity service to a site by a service switch; maintaining an electrical connection with a circuit internal to the site via a leakage capacitor connected between a power line communication coupler of a power line communication module of a network communication device and the site side of the service switch when the site is disconnected from electricity service; monitoring the circuit internal to a site for power line communications when the site is disconnected from electricity service; and receiving a power line communication from a device coupled to the circuit internal to the site when the site is disconnected from electricity service.
A filtration apparatus 10, the apparatus 10 comprising an upper part 14 with a plurality of chambers 22, a supply arrangement to enable a slurry to be filtered to be supplied into a selective one of the chambers 22, and a lower part 16 defining a plurality of stations, characterised in that the upper part 14 is selectively movable relative to the lower part 16 to bring the chambers 22 respectively into alignment with a required one of the stations, at least one of the stations including a filter member 40 to enable the slurry located in a respective one of the chambers 22 above the filter member 40 to be filtered, a further station defining a discharge opening 36 to enable filtered material out of the slurry in a respective one of the chambers 22 thereabove to be discharged from the apparatus 10.
A HVAC system comprising: a compressor; and a vertical axis wind turbine configured to provide rotational energy directly to the compressor, wherein the system further comprises: an energy conversion unit configured to convert excess rotational energy generated by the vertical axis wind turbine into electrical energy, or electrical energy into rotational energy for use within the compressor; and a control unit configured to ensure that the total amount of rotational energy supplied to the compressor is maintained within a predetermined range, wherein the compressor is configured to receive rotational energy from at least one of the vertical axis wind turbine and the energy conversion unit. a compressor; and a vertical axis wind turbine configured to provide rotational energy directly to the compressor, wherein the system further comprises: an energy conversion unit configured to convert excess rotational energy generated by the vertical axis wind turbine into electrical energy, or electrical energy into rotational energy for use within the compressor; and a control unit configured to ensure that the total amount of rotational energy supplied to the compressor is maintained within a predetermined range, an energy conversion unit configured to convert excess rotational energy generated by the vertical axis wind turbine into electrical energy, or electrical energy into rotational energy for use within the compressor; and a control unit configured to ensure that the total amount of rotational energy supplied to the compressor is maintained within a predetermined range, wherein the compressor is configured to receive rotational energy from at least one of the vertical axis wind turbine and the energy conversion unit.
A pipe connection comprising a first pipe, a second pipe and a ring seal that is provided with a sealing lip, wherein the first pipe has a spigot end and the second pipe has a socket end that is provided with an annular bead, wherein the spigot end of the first pipe can be inserted into the socket end of the second pipe and the ring seal can be introduced into the annular bead, wherein the annular bead has a front side that faces the socket end and a rear side that faces away from the socket end, wherein the ring seal and the sealing lip are deformed in the direction of the rear side of the annular bead during the insertion of the first pipe and the ring seal has a wedge-shaped point that can be positioned on the front end of the annular bead, and wherein the ring seal abuts on the rear end of the annular bead with its rear end after the insertion of the first pipe and is at the same time spaced apart from the front end of the annular bead, characterized in that the ring seal is dimensioned in relation to the annular bead and the first pipe in such a way that the ring seal abuts on the front side of the annular bead when the first pipe is pulled out, wherein the ring seal is spaced apart from the rear end of the annular bead with its rear end and clamped in the gap between the first pipe and the second pipe with the frontal wedge-shaped point.
An uplink, UL, communication method in a narrow-band system, the UL communication method comprising, receiving, by a user equipment, UE, control information including information indicating whether the UE uses symbols used for a narrowband-internet of things, NB-loT system, for uplink, UL, data channel transmission or the UE punctures the UL data channel transmission in at least one symbol used for the NB-loT system overlapping with reference signal, RS; and transmitting the symbols or puncturing the UL data channel transmission in the at least one symbol based on the control information, wherein the UL data channel transmission is for the NB-loT system and the RS is for a long term evolution, LTE, system. receiving, by a user equipment, UE, control information including information indicating whether the UE uses symbols used for a narrowband-internet of things, NB-loT system, for uplink, UL, data channel transmission or the UE punctures the UL data channel transmission in at least one symbol used for the NB-loT system overlapping with reference signal, RS; and transmitting the symbols or puncturing the UL data channel transmission in the at least one symbol based on the control information,
A computer-implemented method for booting an operating system in discrete stages on a device, comprising: obtaining a primary boot image, wherein the primary boot image includes at least a network client that is configured to provide a networking functionality to the operating system; booting the device using the primary boot image; pausing the booting of the device after the network client is loaded; obtaining, using the network client, a secondary operating system image that builds upon the functionality of the primary boot image, wherein the secondary operating system image provides additional functionality to the operating system; chaining the secondary operating system image to the primary boot image to form a logical image of a single complete operating system; and continuing the booting of the device after the chaining operation. obtaining a primary boot image, wherein the primary boot image includes at least a network client that is configured to provide a networking functionality to the operating system; booting the device using the primary boot image; pausing the booting of the device after the network client is loaded; obtaining, using the network client, a secondary operating system image that builds upon the functionality of the primary boot image, wherein the secondary operating system image provides additional functionality to the operating system; chaining the secondary operating system image to the primary boot image to form a logical image of a single complete operating system; and continuing the booting of the device after the chaining operation.
Cylindrical radiator for a continuous-flow heater in a hot beverage preparation device for household purposes with a metallic lateral area, a filler made from magnesium oxide powder, a heating coil enclosed therein, a lateral area made from deformed metal sheet and at least one seam in the lateral area, characterised by at least one fold (16; 18) in the lateral area.
A polymer stent body, comprising: a plurality of interconnected structural elements formed by laser machining a thin-walled polymer tube with a laser beam that cuts through the wall of the tube to form the structural elements, wherein the structural elements have sidewalls corresponding to machined edge surfaces, wherein a surface region adjacent to the sidewalls has damage caused by interaction of the laser beam with the polymer tube, characterized in that the polymer stent body is such that the damage comprises voids dispersed in the surface region to a depth of 5 microns or less from the machined edge surfaces. a plurality of interconnected structural elements formed by laser machining a thin-walled polymer tube with a laser beam that cuts through the wall of the tube to form the structural elements, wherein the structural elements have sidewalls corresponding to machined edge surfaces, wherein a surface region adjacent to the sidewalls has damage caused by interaction of the laser beam with the polymer tube, characterized in that the polymer stent body is such that the damage comprises voids dispersed in the surface region to a depth of 5 microns or less from the machined edge surfaces.
Method for directly adapting and/or training an electric arc sensor in relation to the effects of different electric arcs which occur in an electrical installation system which is to be protected and/or monitored, whereby a predeterminable number of predeterminable electric arcs are simulated and/or generated at least at a first position in the installation system, whereby following each simulated or generated electric arc at least one current curve and/or voltage curve is recorded, whereby at least one characteristic of the recorded current curves and/or voltage curves is determined and/or stored, characterised in that a number of failed half-waves of the current curve and/or voltage curve is determined and/or stored as at least one characteristic.
A Zero-IF receiver (300, 400, 500, 600, 700) in a Time Division Duplex, TDD, system, said Zero-IF receiver being used as a receiving path of a transceiver and comprising: Radio Frequency, RF, circuit for processing a received RF signal; baseband circuit for converting the RF signal from the RF circuit to a baseband signal and processing it; correction circuit for correcting said baseband signal based on correction parameters; said Zero-IF receiver further comprising: training signal providing part for providing a training signal to adapt said correction parameters; and training signal coupling part for coupling said training signal to the baseband circuit during an idle period of the Zero-IF receiver to enable the correction circuit to adapt said correction parameters based on said training signal, wherein the training signal providing part is configured to provide a signal being transmitted on a transmitting path of the transceiver as said training signal. Radio Frequency, RF, circuit for processing a received RF signal; baseband circuit for converting the RF signal from the RF circuit to a baseband signal and processing it; correction circuit for correcting said baseband signal based on correction parameters; said Zero-IF receiver further comprising: training signal providing part for providing a training signal to adapt said correction parameters; and training signal coupling part for coupling said training signal to the baseband circuit during an idle period of the Zero-IF receiver to enable the correction circuit to adapt said correction parameters based on said training signal, training signal providing part for providing a training signal to adapt said correction parameters; and training signal coupling part for coupling said training signal to the baseband circuit during an idle period of the Zero-IF receiver to enable the correction circuit to adapt said correction parameters based on said training signal, wherein the training signal providing part is configured to provide a signal being transmitted on a transmitting path of the transceiver as said training signal.
A process of manufacturing leaf seals for effecting seals between coaxial, relatively rotating components (34,37), each leaf seal having an annular pack of leaves which are stacked face-to-face within the pack, and which are mountable to one of the components at respective root portions of the leaves such that the leaves extend towards a sealing surface of the other component and respective edge of the leaves are presented for wiping contact with the sealing surface, the annular pack having a pack radius at the wiping contact edges which is matched within tolerance limits to the radius of the sealing surface to prevent, at one extreme, excessive interference of the leaves with the sealing surface and, at the other extreme, insufficient sealing; wherein the process includes the steps of: (a) determining production parameter (T,G,α,L,R) for the production of a plurality of leaf seals for use with a seal surface having a given radius, the parameters being determined such that at least a portion of the produced leaf seals will have pack radii which violate the tolerance limit for preventing excessive interference; (b) producing the leaf seals using the determined production parameters; and (c) modifying the pack radii of the portion of the produced leaf seals which violate the tolerance limit for preventing excessive interference such that the modified pack radii match the sealing surface within the tolerance limits. (a) determining production parameter (T,G,α,L,R) for the production of a plurality of leaf seals for use with a seal surface having a given radius, the parameters being determined such that at least a portion of the produced leaf seals will have pack radii which violate the tolerance limit for preventing excessive interference; (b) producing the leaf seals using the determined production parameters; and (c) modifying the pack radii of the portion of the produced leaf seals which violate the tolerance limit for preventing excessive interference such that the modified pack radii match the sealing surface within the tolerance limits.
A method for producing a cast workpiece, wherein the method comprises the following method steps: - providing a mold having at least one mold core arranged in the mold; - inserting a metal melt into the mold; - waiting for a period of time until at least the outer contour of the metal melt has solidified and the workpiece has been formed from the metal melt; - removing the workpiece from the mold; - shattering the mold core, wherein for shattering the mold core, a hammer head is applied on a defined energy transmission surface of the workpiece and the energy transmission surface is acted on by means of the hammer head, characterized in that shattering the mold core by means of the hammer head is carried out at a surface temperature of the energy transmission surface of between 300° Celsius and 400° Celsius, wherein at least outward parts of the mold core are shattered. - providing a mold having at least one mold core arranged in the mold; - inserting a metal melt into the mold; - waiting for a period of time until at least the outer contour of the metal melt has solidified and the workpiece has been formed from the metal melt; - removing the workpiece from the mold; - shattering the mold core, wherein for shattering the mold core, a hammer head is applied on a defined energy transmission surface of the workpiece and the energy transmission surface is acted on by means of the hammer head, characterized in that
A preparation method for a compound of formula I, comprising the following steps: a) subjecting a compound of formula 2 to an oxidization reaction to obtain a compound of formula 3, b) attaching a protecting group to the compound of formula 3 to obtain a compound of formula 4, c) reacting the compound of formula 4 with acetaldehyde to obtain a compound of formula 5, d) subjecting the compound of formula 5 to a reduction reaction to obtain a compound of formula 6, e) converting a cyano group of the compound of formula 6 to a carboxyl group to give the compound of formula I, wherein, said R 1 and R 2 are each independently selected from a silyl ether protecting group. a) subjecting a compound of formula 2 to an oxidization reaction to obtain a compound of formula 3, b) attaching a protecting group to the compound of formula 3 to obtain a compound of formula 4, c) reacting the compound of formula 4 with acetaldehyde to obtain a compound of formula 5, d) subjecting the compound of formula 5 to a reduction reaction to obtain a compound of formula 6, e) converting a cyano group of the compound of formula 6 to a carboxyl group to give the compound of formula I, wherein, said R 1 and R 2 are each independently selected from a silyl ether protecting group.