mhurhangee/ep-ind-claims huggingface dataset:
A plate board type multiple-input multiple-output, MIMO, array antenna comprising: a board (100, 300); a first antenna element (110, 310) and a second antenna element (120, 320) which are formed on the board and configured to radiate electromagnetic waves, wherein the second antenna element (120, 320) is disposed at a predetermined distance α next to the first antenna element (110, 310); two feeders (141, 142, 391, 392) which respectively feed the first (110, 310) and second (120, 320) antenna elements; and a first isolation unit (130, 350) which is configured to offset effects of the antenna elements interfering with one another; characterised in that each feeder is located spaced apart from the respective antenna element under the respective antenna element in a direction perpendicular to the direction along which the first and second antenna elements are disposed on the board, and the first isolation unit comprises a thin metal layer, patterned to form a plurality of bar-shaped isolation elements (131, 132, 351, 352) positioned within a space between the first and second antenna elements on the board, each symmetric with respect to a centre line between the first and second antenna elements, spaced apart from each other, and disposed pointing toward the first and second antenna elements (110, 120) along the long-axis direction of the bars. a board (100, 300); a first antenna element (110, 310) and a second antenna element (120, 320) which are formed on the board and configured to radiate electromagnetic waves, wherein the second antenna element (120, 320) is disposed at a predetermined distance α next to the first antenna element (110, 310); two feeders (141, 142, 391, 392) which respectively feed the first (110, 310) and second (120, 320) antenna elements; and a first isolation unit (130, 350) which is configured to offset effects of the antenna elements interfering with one another; characterised in that each feeder is located spaced apart from the respective antenna element under the respective antenna element in a direction perpendicular to the direction along which the first and second antenna elements are disposed on the board, and the first isolation unit comprises a thin metal layer, patterned to form a plurality of bar-shaped isolation elements (131, 132, 351, 352) positioned within a space between the first and second antenna elements on the board, each symmetric with respect to a centre line between the first and second antenna elements, spaced apart from each other, and disposed pointing toward the first and second antenna elements (110, 120) along the long-axis direction of the bars.
System for controlling data traffic within an application control network comprising a plurality of data forwarding devices (110, 180) within an integrated communication network and at least one application control component that transmits data to the network at a first frequency or at a second frequency of the at least one application control component, the second frequency being less than the first frequency, the system comprising a processing unit, wherein: the first frequency is a first reporting frequency, and the second frequency is a second reporting frequency and that the processing unit is configured to: determine, based on an application plan, the second reporting frequency at which the data from the application control component is required by the application control network for operation of the application, provide a data path configuration for the plurality of data forwarding devices (110, 180) for passing the data at instances of time defined by the second reporting frequency, and for blocking the data path during the time interval between the time instances defined by the second reporting frequency. the first frequency is a first reporting frequency, and the second frequency is a second reporting frequency and that the processing unit is configured to: determine, based on an application plan, the second reporting frequency at which the data from the application control component is required by the application control network for operation of the application, provide a data path configuration for the plurality of data forwarding devices (110, 180) for passing the data at instances of time defined by the second reporting frequency, and for blocking the data path during the time interval between the time instances defined by the second reporting frequency. determine, based on an application plan, the second reporting frequency at which the data from the application control component is required by the application control network for operation of the application, provide a data path configuration for the plurality of data forwarding devices (110, 180) for passing the data at instances of time defined by the second reporting frequency, and for blocking the data path during the time interval between the time instances defined by the second reporting frequency.
An automated laboratory apparatus for processing a sample comprising a treatment chamber for receiving the sample; a movement device arranged movably in at least one first spatial direction (x) of the treatment chamber; an analysis unit arranged in the treatment chamber for analyzing the sample, which analysis unit can be received by the movement device and can be moved to the sample by means of the movement device; and an electronic control device which is signal-connected to the movement device and the analysis unit, wherein the analysis unit is designed as a detection device comprising a radiation source for irradiating the sample with a primary radiation and a detector for receiving a secondary radiation originating from the sample, characterized in that the analysis unit is designed as a wireless analysis unit with an energy storage device, and the automated laboratory apparatus comprises a charging station arranged in the treatment chamber for storing the analysis unit and for charging the energy storage device. a treatment chamber for receiving the sample; a movement device arranged movably in at least one first spatial direction (x) of the treatment chamber; an analysis unit arranged in the treatment chamber for analyzing the sample, which analysis unit can be received by the movement device and can be moved to the sample by means of the movement device; and an electronic control device which is signal-connected to the movement device and the analysis unit, wherein the analysis unit is designed as a detection device comprising a radiation source for irradiating the sample with a primary radiation and a detector for receiving a secondary radiation originating from the sample, characterized in that the analysis unit is designed as a wireless analysis unit with an energy storage device, and the automated laboratory apparatus comprises a charging station arranged in the treatment chamber for storing the analysis unit and for charging the energy storage device.
A compact container having a compact container body hinged with a compact container cap, and a rod-shaped cosmetic container provided therein, characterzed in that a cap cylindrical hinge of the compact container cap is rotated together with a rotation cylindrical hinge coupled to the cap cylindrical hinge when the compact container cap is open or closed while an actuation member located in the rotation cylindrical hinge is moved, such that the actuation member coupled to the rod-shaped cosmetic container linearly slides.
A tire comprising: a tread portion comprising axially outer shoulder blocks and axially inner crown blocks, wherein each of the shoulder blocks has a ground contacting surface comprising an axially outer portion extending axially inwardly from one of tread edges (Te), and a steeply oblique portion extending axially inwardly from the axially outer portion and having a larger inclination angle with respect to the tire axial direction than the axially outer portion, and each of the crown blocks has a ground contacting surface comprising a first oblique portion inclined to an opposite direction to the steeply oblique portion of the shoulder blocks and a second oblique portion extending from the first oblique portion and obliquely in an opposite direction to the first oblique portion, characterized in that in a development view of the tread portion, a longitudinal direction of the steeply oblique portion, said direction being indicated by the block center line of said steeply oblique portion, and a longitudinal direction of the first oblique portion, said direction being indicated by the block center line of said first oblique portion, intersect each other at an angle (θ1) in a range of from 70 to 110 degrees, and maximum lengths (Ls) of the shoulder blocks in the tire axial direction are in a range of from 25% to 35% of a tread width. a tread portion comprising axially outer shoulder blocks and axially inner crown blocks, wherein each of the shoulder blocks has a ground contacting surface comprising an axially outer portion extending axially inwardly from one of tread edges (Te), and a steeply oblique portion extending axially inwardly from the axially outer portion and having a larger inclination angle with respect to the tire axial direction than the axially outer portion, and each of the crown blocks has a ground contacting surface comprising a first oblique portion inclined to an opposite direction to the steeply oblique portion of the shoulder blocks and a second oblique portion extending from the first oblique portion and obliquely in an opposite direction to the first oblique portion, characterized in that in a development view of the tread portion, a longitudinal direction of the steeply oblique portion, said direction being indicated by the block center line of said steeply oblique portion, and a longitudinal direction of the first oblique portion, said direction being indicated by the block center line of said first oblique portion, intersect each other at an angle (θ1) in a range of from 70 to 110 degrees, and maximum lengths (Ls) of the shoulder blocks in the tire axial direction are in a range of from 25% to 35% of a tread width.
An apparatus for a session management function, SMF, in a wireless communication system, the apparatus comprising: a transceiver; and at least one processor, coupled with the transceiver, and configured to: control the transceiver to receive (step 2), from an access and mobility function, AMF, an N11 message including a list of bearers to be switched; determine (step 3) whether a source user plane function, UPF, can continue to serve a user equipment, UE, based on the N11 message; select (step 3) a target UPF based on a UPF selection criteria, in case that the source UPF cannot continue to serve the UE; allocate (step 3) tunnel information associated with an uplink, UL, and tunnel information associated with a downlink, DL; control the transceiver to transmit (step 3), to the target UPF, an N4 session establishment request message including the tunnel information associated with the UL and the tunnel information associated with the DL; and control the transceiver to transmit (step 7), to the AMF, a N11 Ack message based on the N11 message, the N11 Ack message including the tunnel information associated with the UL. a transceiver; and at least one processor, coupled with the transceiver, and configured to: control the transceiver to receive (step 2), from an access and mobility function, AMF, an N11 message including a list of bearers to be switched; determine (step 3) whether a source user plane function, UPF, can continue to serve a user equipment, UE, based on the N11 message; select (step 3) a target UPF based on a UPF selection criteria, in case that the source UPF cannot continue to serve the UE; allocate (step 3) tunnel information associated with an uplink, UL, and tunnel information associated with a downlink, DL; control the transceiver to transmit (step 3), to the target UPF, an N4 session establishment request message including the tunnel information associated with the UL and the tunnel information associated with the DL; and control the transceiver to transmit (step 7), to the AMF, a N11 Ack message based on the N11 message, the N11 Ack message including the tunnel information associated with the UL. control the transceiver to receive (step 2), from an access and mobility function, AMF, an N11 message including a list of bearers to be switched; determine (step 3) whether a source user plane function, UPF, can continue to serve a user equipment, UE, based on the N11 message; select (step 3) a target UPF based on a UPF selection criteria, in case that the source UPF cannot continue to serve the UE; allocate (step 3) tunnel information associated with an uplink, UL, and tunnel information associated with a downlink, DL; control the transceiver to transmit (step 3), to the target UPF, an N4 session establishment request message including the tunnel information associated with the UL and the tunnel information associated with the DL; and control the transceiver to transmit (step 7), to the AMF, a N11 Ack message based on the N11 message, the N11 Ack message including the tunnel information associated with the UL.
An axial contra-rotating compressor for compressing a process fluid, comprising: a first shaft assembly disposed in an upper part of a housing and rotatable about a longitudinal axis, the first shaft assembly comprising a radially outer shaft, and a first plurality of impellers coupled to the radially outer shaft, wherein the radially outer shaft comprises a final stage, wherein the final stage comprises: a radially inner cylindrical member; a radially outer cylindrical member comprising an outlet port; an annular shoulder extending between the inner cylindrical member and the outer cylindrical member; and an annular channel formed between the inner cylindrical member and the outer cylindrical member and terminating at the annular shoulder, wherein a final impeller of the first plurality of impellers is positioned in the annular channel; a second shaft assembly disposed in a lower part of the housing and rotatable about the longitudinal axis, the second shaft assembly comprising a second plurality of impellers interleaved with the first plurality of impellers; a first annular seal, between a radially outer surface of the inner cylindrical member of the final stage and an inner surface of the housing and a second annular seal between a radially outer surface of the outer cylindrical member of the final stage and the inner surface of the housing, the first and second annular seals (430, 434) being configured to permit relative rotation between the final stage and the housing; and a third annular seal positioned between the radially outer surface of the inner cylindrical member of the final stage and an inner surface of the second shaft assembly, the third annular seal configured to permit contra-rotation between the final stage and the second shaft assembly. a radially inner cylindrical member; a radially outer cylindrical member comprising an outlet port; an annular shoulder extending between the inner cylindrical member and the outer cylindrical member; and an annular channel formed between the inner cylindrical member and the outer cylindrical member and terminating at the annular shoulder, wherein a final impeller of the first plurality of impellers is positioned in the annular channel; a second shaft assembly disposed in a lower part of the housing and rotatable about the longitudinal axis, the second shaft assembly comprising a second plurality of impellers interleaved with the first plurality of impellers; a first annular seal, between a radially outer surface of the inner cylindrical member of the final stage and an inner surface of the housing and a second annular seal between a radially outer surface of the outer cylindrical member of the final stage and the inner surface of the housing, the first and second annular seals (430, 434) being configured to permit relative rotation between the final stage and the housing; and a third annular seal positioned between the radially outer surface of the inner cylindrical member of the final stage and an inner surface of the second shaft assembly, the third annular seal configured to permit contra-rotation between the final stage and the second shaft assembly.
Saddle-type vehicle having an airbag device comprising: an inflator; an airbag adapted to be expanded by gas discharged from the inflator; and a retainer accommodating the airbag, the airbag being deployed upward from an opening of the retainer, characterized in that the retainer is disposed in front of a head pipe adapted to support a handle for steering, a wind screen is disposed above the retainer, and the wind screen openably and closably covers the opening of the retainer. an inflator; an airbag adapted to be expanded by gas discharged from the inflator; and a retainer accommodating the airbag, the airbag being deployed upward from an opening of the retainer, characterized in that the retainer is disposed in front of a head pipe adapted to support a handle for steering, a wind screen is disposed above the retainer, and the wind screen openably and closably covers the opening of the retainer.
A seal structure of a cooler apparatus, the cooler apparatus being configured to cause drive trains to move to convey granular conveyed substances placed on the drive trains, the drive trains being arranged in an orthogonal direction such that side walls (21a, 21b) of the adjacent drive trains are opposed to each other, and supply a cooling fluid to the granular conveyed substances from under the drive trains, the seal structure comprising: a cover body attached to one of the opposing side walls, the cover body and the one side wall surrounding an upper surface and both side surfaces, in the orthogonal direction, of the other side wall to cover a gap between the opposing side walls from above, a lower end portion of an opposing portion of the cover body extending down to a vicinity of the grate, the opposing portion being opposed to the other side wall, a narrow passage being formed between the lower end portion and the grate, and a sealing member provided between the cover body and the other side wall.
A downhole valve assembly operable to control production fluid flow around an obstruction in a production tubing string, the downhole valve assembly comprising: a tubular body comprising an axial passage extending through the body; one or more ports extending substantially radially through the body; and one or more actuating members operable to move relative to the body to selectively open the ports such that a fluid flow path through the ports is defined between an annulus region outside of the valve assembly and the axial passage, the downhole valve assembly comprising a mechanically actuated actuating member, wherein the mechanically actuated actuating member is adapted for mechanical engagement with a removable downhole tool such that upon removal of the downhole tool the actuating member may be moved from a first position to a second position, when the mechanically actuated actuating member is in the second position the valve assembly is in a primed state, and wherein the ports remain closed when the mechanically actuated actuating member is in the second position. a tubular body comprising an axial passage extending through the body; one or more ports extending substantially radially through the body; and one or more actuating members operable to move relative to the body to selectively open the ports such that a fluid flow path through the ports is defined between an annulus region outside of the valve assembly and the axial passage, the downhole valve assembly comprising a mechanically actuated actuating member, wherein the mechanically actuated actuating member is adapted for mechanical engagement with a removable downhole tool such that upon removal of the downhole tool the actuating member may be moved from a first position to a second position, when the mechanically actuated actuating member is in the second position the valve assembly is in a primed state, and wherein the ports remain closed when the mechanically actuated actuating member is in the second position.
An assignment unit in a device for assigning acknowledgement, ACK, channels to a user according to a rule acquired in advance, wherein the ACK channels are used to feed back ACK information of N downlink sub-frames in one uplink sub-frame; wherein the ACK channels are assigned by: dividing the ACK channels into N blocks, each downlink sub-frame of the N downlink sub-frames corresponding to one block in a preset sequence, wherein the preset sequence is a sequence that a special sub-frame is placed at a last position, or the preset sequence is a sequence that the sub-frame with the maximum actual value of n is placed at a foremost position; dividing each block into max{ Mi} or Mi sub-blocks, the sub-blocks belonging to different blocks being interleaved and sub-blocks which are from the different blocks and mapped to a same control channel element, CCE, set of different sub-frames are arranged sequentially according to the preset sequence; and assigning the ACK channels to the downlink sub-frames by mapping CCE sets with labels of {0,1,..., N CCE,1 -1}, { N CCE,1, N CCE,1 +1,..., N CCE,2 -1},..., { N CCE,max{ Mi}-1, N CCE,max{ Mi}-1 +1,..., N CCE,max{ Mi} -1} within each downlink sub-frame to the max{ Mi} sub-blocks of the block associated with downlink sub-frame of label i; or assigning the ACK channels to the downlink sub-frames by mapping CCE sets with labels of {0, 1,..., N CCE,1 -1}, { N CCE,1, N CCE,1 +1,..., N CCE,2 -1},..., { N CCE,Mi -1, N CCE,Mi -1 +1,..., N CCE,Mi -1} within each downlink sub-frame to the Mi sub-blocks of the block associated with downlink sub-frame of label i; wherein the N being a positive integer, the Mi represents a maximum possible value of n for a downlink sub-frame with a label of i among N downlink sub-frames, the i=0, 1,..., N-1, the max{ Mi} represents a maximum value of Mi, the N CCE, max{ Mi} represents the number of CCEs in the downlink sub-frame when n is equal to max{ Mi}, the N CCE,Mi represents the number of CCEs in the downlink sub-frame when n is equal to Mi, the n is the number of symbols occupied by a physical downlink control channel, PDCCH.