mhurhangee/ep-ind-claims huggingface dataset:
An input method, comprising: providing an input interface on a touch display screen, wherein the input interface comprises a virtual soft keyboard distributed in a sector area around a lower left corner or lower right corner of the input interface; receiving an input instruction which is input by a user through the virtual soft keyboard; displaying input information corresponding to the input instruction; receiving a closing instruction issued by the user, wherein the closing instruction indicates that a finger of the user slides along an outer arc boundary of the sector area corresponding to the virtual soft keyboard; and closing the input interface according to the closing instruction; wherein the virtual soft keyboard comprises a term selection area; wherein the method further comprises displaying in the term selection area only candidate single characters when a scroll bar in the term selection area is pressed and slid counterclockwise and displaying only candidate associated terms when the scroll bar in the term selection area is pressed and slid clockwise, or displaying in the term selection area only candidate single characters when a scroll bar in the term selection area is pressed and slid clockwise and displaying only candidate associated terms when the scroll bar in the term selection area is pressed and slid counterclockwise. providing an input interface on a touch display screen, wherein the input interface comprises a virtual soft keyboard distributed in a sector area around a lower left corner or lower right corner of the input interface; receiving an input instruction which is input by a user through the virtual soft keyboard; displaying input information corresponding to the input instruction; receiving a closing instruction issued by the user, wherein the closing instruction indicates that a finger of the user slides along an outer arc boundary of the sector area corresponding to the virtual soft keyboard; and closing the input interface according to the closing instruction; wherein the virtual soft keyboard comprises a term selection area; wherein the method further comprises displaying in the term selection area only candidate single characters when a scroll bar in the term selection area is pressed and slid counterclockwise and displaying only candidate associated terms when the scroll bar in the term selection area is pressed and slid clockwise, or displaying in the term selection area only candidate single characters when a scroll bar in the term selection area is pressed and slid clockwise and displaying only candidate associated terms when the scroll bar in the term selection area is pressed and slid counterclockwise.
A rotation restricting device for rotation machine, comprising a rotation shaft supporting body, a rotation shaft rotatably provided on said rotation shaft supporting body, a fixing ring fixed on an end portion of said rotation shaft, a position finding dog provided on said fixing ring, a rotary cam rotatably provided on said rotation shaft and disposed as relatively rotatable with respect to said fixing ring, a cutaway portion formed on said rotary cam, a rotary dog disposed on said rotary cam, a stopper provided on said rotation shaft supporting body, and a position finding switch which is provided on said rotation shaft supporting body facing an outer peripheral surface of said cam of said rotary cam and detects said cutaway portion, wherein said position finding dog is accommodated in said cutaway portion and can be rotated within a range in space as formed by said cutaway portion, said stopper is positioned on a locus of rotation of said rotary dog, wherein the said rotation restricting device is arranged such that the rotation of said rotary cam is restricted when said rotary dog comes in contact with said stopper, and such that said position finding switch detects the cutaway portion before said rotary dog comes in contact with the stopper.
A method for wireless communications by a user equipment, UE (120; 120y; 120x; 120a; 120r), comprising: Receiving information indicative of a modulation coding scheme, MCS, for use by the UE (120; 120y; 120x; 120a; 120r) to transmit uplink control information, UCI, comprising channel state information, CSI, -part1 on an uplink data channel; Determining a spectral efficiency for transmitting the UCI based at least in part on the MCS wherein the spectral efficiency is a bit per resource element, BPRE, with the BPRE either being calculated by BPRE = R ∗ Q m β offset where: R = a target code rate indicated by the MCS, Q m = a modulation order indicated by the MCS, and β offset = a rate offset between a rate for transmitting CSI-part 1 and a rate for transmitting uplink data on the uplink data channel; or by BPRE = O CSI Q ′ CSI − 1 where: O CSI = number of bits corresponding to a payload of CSI-part 1 and cyclic redundancy check, CRC, bits associated with CSI-part 1 Q' CSI -1 = actual allocated resource elements, REs, for CSI-part1; Performing uplink power control based at least in part on the determined spectral efficiency; and Transmitting the UCI without uplink data on the uplink data channel using an uplink power based at least in part on the performed uplink power control. Receiving information indicative of a modulation coding scheme, MCS, for use by the UE (120; 120y; 120x; 120a; 120r) to transmit uplink control information, UCI, comprising channel state information, CSI, -part1 on an uplink data channel; Determining a spectral efficiency for transmitting the UCI based at least in part on the MCS wherein the spectral efficiency is a bit per resource element, BPRE, with the BPRE either being calculated by BPRE = R ∗ Q m β offset where: R = a target code rate indicated by the MCS, Q m = a modulation order indicated by the MCS, and β offset = a rate offset between a rate for transmitting CSI-part 1 and a rate for transmitting uplink data on the uplink data channel; R = a target code rate indicated by the MCS, Q m = a modulation order indicated by the MCS, and β offset = a rate offset between a rate for transmitting CSI-part 1 and a rate for transmitting uplink data on the uplink data channel; O CSI = number of bits corresponding to a payload of CSI-part 1 and cyclic redundancy check, CRC, bits associated with CSI-part 1 Q' CSI -1 = actual allocated resource elements, REs, for CSI-part1; Performing uplink power control based at least in part on the determined spectral efficiency; and Transmitting the UCI without uplink data on the uplink data channel using an uplink power based at least in part on the performed uplink power control.
A Human Machine Interface cover in the form of a sheet, having a thickness of about 2 mm to about 5 mm, comprising a cellulose ester composition comprising a cellulose ester comprising the repeating units of the structure: wherein R 1, R 2, and R 3 are selected independently from the group consisting of hydrogen or straight chain alkanoyl having from 2 to 10 carbon atoms, preferably 1 2 3 wherein R, R 2, and R are selected independently from propanoyl and/ or butanoyl, and having a low hydroxyl content with a total degree of substitution in the range from 2.85 to 3. wherein R 1, R 2, and R 3 are selected independently from the group consisting of hydrogen or straight chain alkanoyl having from 2 to 10 carbon atoms, preferably 1 2 3 wherein R, R 2, and R are selected independently from propanoyl and/ or butanoyl, and having a low hydroxyl content with a total degree of substitution in the range from 2.85 to 3.
A power tool comprising: ∘ a moveable piston having a piston rod that is movable between a most distal and a most proximal position, wherein the moveable piston is fully retracted in the most proximal position; ∘ a motor capable of driving the moveable piston to perform work on a work piece; ∘ a distance sensor configured to sense a movement of the moveable piston, the distance sensor operable to provide sensor information indicative of the movement of the moveable piston; and ∘ a controller configured to receive the sensor information from the distance sensor, wherein the controller is configured to: operate the motor to perform work on the work piece based in part on the sensor information that the controller receives from the distance sensor, and after the work is performed on the work piece, use the sensor information to cause the moveable piston to partially retract to a partially-retracted position such that a stroke of the moveable piston starts from the partially-retracted position to perform work on a next work piece, and wherein the partially-retracted position is distal of the most proximal position, characterized in that the distance sensor is mounted within a cylindrical bushing that surrounds the piston rod. ∘ a moveable piston having a piston rod that is movable between a most distal and a most proximal position, wherein the moveable piston is fully retracted in the most proximal position; ∘ a motor capable of driving the moveable piston to perform work on a work piece; ∘ a distance sensor configured to sense a movement of the moveable piston, the distance sensor operable to provide sensor information indicative of the movement of the moveable piston; and ∘ a controller configured to receive the sensor information from the distance sensor,
A downlink data transmission method, comprising: generating a downlink data frame, wherein duration of the downlink data frame is one transmission time interval, TTI; and the downlink data frame comprises a control part located at a header of the downlink data frame and a data part used for transmitting data of a plurality of user equipments, UEs, wherein time resources occupied by data of at least two UEs in the data of the plurality of UEs are different; and the control part carries information about a time location and a frequency location that are allocated to data of each UE in the data of the plurality of UEs; and sending the control part by using a first beam and the data part by using a second beam, wherein there is a time interval used for beam switching between the control part and the data part. generating a downlink data frame, wherein duration of the downlink data frame is one transmission time interval, TTI; and the downlink data frame comprises a control part located at a header of the downlink data frame and a data part used for transmitting data of a plurality of user equipments, UEs, wherein time resources occupied by data of at least two UEs in the data of the plurality of UEs are different; and the control part carries information about a time location and a frequency location that are allocated to data of each UE in the data of the plurality of UEs; and sending the control part by using a first beam and the data part by using a second beam, wherein there is a time interval used for beam switching between the control part and the data part.
Barrier-free ground sill (100'; 100") for a sliding/lifting door, having at least one upper covering face (16, 36; 16") which forms a reference plane and which is interrupted by a running-rail receptacle groove (11; 11") into which a running-rail profile (20'; 20") is latched, a running-rail web (21'; 21") being moulded to the upper side of said running-rail profile (20'; 20"), wherein an undercut latching groove (14; 14") is configured on the base of the running-rail receptacle groove (11; 11") and the running-rail profile (20'; 20") possesses at least two latching webs (23', 24'; 23', 24") in which the latching groove (14; 14") latches, wherein the running-rail profile (20'; 20") on both sides of the running-rail web (21; 21') possesses in each case one covering face (22'; 22") which is disposed so as to be depressed in relation to the reference plane, and that the upper edge of the running-rail web (21; 21') is disposed so as to be level with the reference plane or below the latter, characterized in that the running-rail receptacle groove at least in an upper part of the cross section thereof is configured so as to be trapezoidal, having lateral faces which are set so as to be at least in part oblique in relation to a central axis, and in that the lateral edges of the covering face (22; 22') of the running-rail profile (20; 20') reach up to the lateral faces of the running-rail receptacle groove or bear on the latter, or the lateral flanks of the running-rail web (21") each drop obliquely towards a channel (25") which runs parallel to the running-rail web (21") and to below the height level of the reference plane, and in that an external profile face (26") of the running-rail profile (20") from the channel (25") runs in each case obliquely outwards up to the level of the reference plane.
A cap for forming a sealed cavity around an end of a fastener, the cap comprising: a. a cap body with an annular base terminating at a base rim which surrounds an opening into a central cavity; b. an annular skirt providing an annular pocket between the annular skirt and the annular base, wherein the annular skirt extends from an outboard end where it meets the cap body to an inboard skirt rim; c. an inlet hole in the annular skirt, wherein the inlet hole is in fluid communication with the annular pocket; and characterised by d. a protuberance protruding in the annular pocket and facing the inlet hole to promote a flow of sealant injected through the inlet hole to flow annularly around the annular pocket, wherein the protuberance extends from the annular base towards the inlet hole in the annular skirt and wherein the protuberance has a leading edge configured to intersect the flow of sealant injected through the inlet hole. a. a cap body with an annular base terminating at a base rim which surrounds an opening into a central cavity; b. an annular skirt providing an annular pocket between the annular skirt and the annular base, wherein the annular skirt extends from an outboard end where it meets the cap body to an inboard skirt rim; c. an inlet hole in the annular skirt, wherein the inlet hole is in fluid communication with the annular pocket; and characterised by d. a protuberance protruding in the annular pocket and facing the inlet hole to promote a flow of sealant injected through the inlet hole to flow annularly around the annular pocket, wherein the protuberance extends from the annular base towards the inlet hole in the annular skirt and wherein the protuberance has a leading edge configured to intersect the flow of sealant injected through the inlet hole.
Laser module (11, 12) for a vehicle headlamp, comprising a laser light source, preferably a laser diode, and an optical system assigned to the laser light source and comprising at least one collimator, characterised by a module body (21, 41) having a head portion (24, 44), which includes an articulation part of a ball-and-socket joint having at least one articulation surface (25, 45) of spherical shell shape, wherein the laser light source is mounted together with the optical system in a fixed positional relationship to each another within a receiving space (22, 47) provided in the head portion.
A method of selectively sealing at least one cooling hole (12, 14) provided on an aerofoil component, the method comprising: applying a thermoplastic material to one or more selected cooling holes (12, 14) in a molten phase; and cooling the thermoplastic material to set the thermoplastic material, characterised in that the method comprises heating a surface of the aerofoil component to between 50°C and 60°C such that the surface is above room temperature while the thermoplastic material is applied to facilitate adhesion.
A method for prioritizing data traffic within a network, the method comprising: discovering one or more devices associated with one or more prioritized classes within a network having a network protocol; allocating, in response to the discovering, one or more transit resources of a transit protocol different than the network protocol for use by the one or more devices associated with the one or more prioritized classes; and selectively routing data for the one or more devices associated with the one or more prioritized classes over only the corresponding allocated one or more transit resources; characterized by: determining a network protocol time parameter based on a transit time parameter of the transit protocol; using the determined network protocol time parameter to schedule transmission of the selectively routed data; and processing the selectively routed data in accordance with the determined network protocol time parameter. discovering one or more devices associated with one or more prioritized classes within a network having a network protocol; allocating, in response to the discovering, one or more transit resources of a transit protocol different than the network protocol for use by the one or more devices associated with the one or more prioritized classes; and selectively routing data for the one or more devices associated with the one or more prioritized classes over only the corresponding allocated one or more transit resources; characterized by: determining a network protocol time parameter based on a transit time parameter of the transit protocol; using the determined network protocol time parameter to schedule transmission of the selectively routed data; and processing the selectively routed data in accordance with the determined network protocol time parameter. determining a network protocol time parameter based on a transit time parameter of the transit protocol; using the determined network protocol time parameter to schedule transmission of the selectively routed data; and processing the selectively routed data in accordance with the determined network protocol time parameter.
A method of wireless communication, comprising: determining when downlink time division duplex, TDD, communications between a first user equipment, UE, (802; 912) and a first base station (804; 904) experience interference from uplink TDD communications between a second UE (820; 914) and a second base station (808; 902) when communication frames of the first UE (802; 912) and second UE (820; 914) are aligned; and characterized by scheduling communications of the first UE by switching to a different TDD configuration to reduce the interference. determining when downlink time division duplex, TDD, communications between a first user equipment, UE, (802; 912) and a first base station (804; 904) experience interference from uplink TDD communications between a second UE (820; 914) and a second base station (808; 902) when communication frames of the first UE (802; 912) and second UE (820; 914) are aligned; and characterized by scheduling communications of the first UE by switching to a different TDD configuration to reduce the interference.
A discharge lamp comprising: a light-emitting section including a discharge space in which metal halide is encapsulated; a seal section formed at an end portion of the light-emitting section; and an electrode mount including a metal foil including first and second surfaces located on a front and a back and an electrode connected to the metal foil, wherein a welding mark is formed such that the first surface and at least a part of the electrode overlap each other, the welding mark has an elliptical shape long in an axial direction of the electrode when viewed from the second surface side, and a ratio L1/L2 of a first length L1 in the axial direction and a second length L2 in a direction orthogonal to the axial direction is in a relation of Expression below. 1.08 ≤ L 1 / L 2 ≤ 1.56 a light-emitting section including a discharge space in which metal halide is encapsulated; a seal section formed at an end portion of the light-emitting section; and an electrode mount including a metal foil including first and second surfaces located on a front and a back and an electrode connected to the metal foil, wherein a welding mark is formed such that the first surface and at least a part of the electrode overlap each other, the welding mark has an elliptical shape long in an axial direction of the electrode when viewed from the second surface side, and a ratio L1/L2 of a first length L1 in the axial direction and a second length L2 in a direction orthogonal to the axial direction is in a relation of Expression below. 1.08 ≤ L 1 / L 2 ≤ 1.56
A device, comprising: a central tube, a plurality of tube chambers disposed around the central tube, each comprising a rod element configured to rotate about its own axis disposed therein, each rod element comprising a curved and unattached free end portion comprising a leading sharpened edge, the end portion being biased against an internal surface within the tube chamber to assume a first radius of curvature; wherein each rod element is configured for deployment from its respective tube chamber, the curved and unattached free end portion of each rod element being configured to assume a second radius of curvature when deployed outside of its respective tube chamber, the second radius of curvature being smaller than the first radius of curvature and wherein the curved and unattached free end portions of the deployed rod elements are configured to collectively circumscribe, cut and part off a volume of tissue as each rod element is rotated about its own axis and as the device is rotated. a central tube, a plurality of tube chambers disposed around the central tube, each comprising a rod element configured to rotate about its own axis disposed therein, each rod element comprising a curved and unattached free end portion comprising a leading sharpened edge, the end portion being biased against an internal surface within the tube chamber to assume a first radius of curvature; wherein each rod element is configured for deployment from its respective tube chamber, the curved and unattached free end portion of each rod element being configured to assume a second radius of curvature when deployed outside of its respective tube chamber, the second radius of curvature being smaller than the first radius of curvature and wherein the curved and unattached free end portions of the deployed rod elements are configured to collectively circumscribe, cut and part off a volume of tissue as each rod element is rotated about its own axis and as the device is rotated.