mhurhangee/ep-ind-claims huggingface dataset:
A communication method performed by a terminal device, comprising: determining at least one target time parameter set based on N time parameter sets, wherein N is a positive integer greater than or equal to 2, time unit lengths corresponding to at least two of the N time parameter sets are different, each time parameter set comprises at least one time parameter, and the at least one time parameter is used to indicate a quantity of time units between receiving first downlink information and feeding back first response information corresponding to the first downlink information; and sending a codebook at a first time to a network device, wherein the codebook comprises response information corresponding to downlink information received at at least one of M target times, the M target times are determined based on the first time and the at least one target time parameter set, and M is a positive integer; characterized in that the determining is enabled by first: receiving configuration information from the network device, wherein the configuration information is used to indicate N1 time parameter sets; determining the N1 time parameter sets based on the configuration information; determining N2 time parameter sets based on a predefined specification; and obtaining the N time parameter sets based on the N1 time parameter sets and the N2 time parameter sets, wherein the N time parameter sets comprise the N1 time parameter sets and the N2 time parameter sets, a sum of N1 and N2 is N, and N1 and N2 are both positive integers. determining at least one target time parameter set based on N time parameter sets, wherein N is a positive integer greater than or equal to 2, time unit lengths corresponding to at least two of the N time parameter sets are different, each time parameter set comprises at least one time parameter, and the at least one time parameter is used to indicate a quantity of time units between receiving first downlink information and feeding back first response information corresponding to the first downlink information; and sending a codebook at a first time to a network device, wherein the codebook comprises response information corresponding to downlink information received at at least one of M target times, the M target times are determined based on the first time and the at least one target time parameter set, and M is a positive integer; characterized in that the determining is enabled by first: receiving configuration information from the network device, wherein the configuration information is used to indicate N1 time parameter sets; determining the N1 time parameter sets based on the configuration information; determining N2 time parameter sets based on a predefined specification; and obtaining the N time parameter sets based on the N1 time parameter sets and the N2 time parameter sets, wherein the N time parameter sets comprise the N1 time parameter sets and the N2 time parameter sets, a sum of N1 and N2 is N, and N1 and N2 are both positive integers.
A method for determining a geographical state of a target through a user device, comprising: identifying at least one target associated with a target device configured to provide position data in a standard reference frame along with corresponding time values; sending a request for access to geographical state information for at least one target; receiving geographical state information associated with the at least one target; and generating a visual identifier of the at least one target based on the geographical state information, wherein the visual identifier indicates an age of a previous position, velocity, or orientation or a persistence of a present position, velocity, or orientation of the at least one target, and wherein the visual identifier is associated with data captured by an imaging sensor functionally coupled to the user device. identifying at least one target associated with a target device configured to provide position data in a standard reference frame along with corresponding time values; sending a request for access to geographical state information for at least one target; receiving geographical state information associated with the at least one target; and generating a visual identifier of the at least one target based on the geographical state information, wherein the visual identifier indicates an age of a previous position, velocity, or orientation or a persistence of a present position, velocity, or orientation of the at least one target, and wherein the visual identifier is associated with data captured by an imaging sensor functionally coupled to the user device.
An aircraft monument for use in a cabin of an aircraft, the aircraft monument comprising: a monument assembly having a frame, the frame having a plurality of walls defining a compartment, the plurality of walls including a first end wall having a forward section at a forward plane of the frame, the compartment being defined rearward of the forward section; and a seat assembly forward of the frame, the seat assembly further comprising a passenger seat, the seat assembly having a shell configured to at least partially surround the passenger seat, the shell having a rear rearward of the forward plane of the frame; and wherein: the shell comprises a first end wall, defining the rear; the first end wall of the shell mirrors the first end wall of the frame; the first end wall of the shell comprises a forward section and a rear section; the passenger seat comprises a seat and a backrest; and the backrest is reclined into a space between the rear section and the forward section of the first end wall of the shell. a monument assembly having a frame, the frame having a plurality of walls defining a compartment, the plurality of walls including a first end wall having a forward section at a forward plane of the frame, the compartment being defined rearward of the forward section; and a seat assembly forward of the frame, the seat assembly further comprising a passenger seat, the seat assembly having a shell configured to at least partially surround the passenger seat, the shell having a rear rearward of the forward plane of the frame; and wherein: the shell comprises a first end wall, defining the rear; the first end wall of the shell mirrors the first end wall of the frame; the first end wall of the shell comprises a forward section and a rear section; the passenger seat comprises a seat and a backrest; and the backrest is reclined into a space between the rear section and the forward section of the first end wall of the shell. the shell comprises a first end wall, defining the rear; the first end wall of the shell mirrors the first end wall of the frame; the first end wall of the shell comprises a forward section and a rear section; the passenger seat comprises a seat and a backrest; and the backrest is reclined into a space between the rear section and the forward section of the first end wall of the shell.
An electric actuator, comprising: a first sun gear configured to be rotated by a first motor; at least one first planetary gear meshing with the first sun gear; a first internal gear having internal teeth that meshes with the at least one first planetary gear, the rotation of the first internal gear being restrained; and an output section receiving a reduced output from the first motor through a rotational member supported by a bearing and through a second internal gear, wherein the output section receives an output from a second motor through a planetary gear mechanism that includes the second internal gear, a Z second sun gear, and a second planetary gear, wherein the second sun gear is configured to be rotated by the second motor, wherein the at least one second planetary gear is meshing with the second sun gear, and wherein the second internal gear has internal teeth meshing with the at least one second planetary gear, characterized in that the rotational member is configured to rotate at the same speed and in the same direction as the revolution of the at least one first planetary gear around an axis of the first sun gear, the second internal gear is configured to rotate at the same speed and in the same direction as the rotational member, and the output section is configured to rotate at the same speed and in the same direction as the revolution of the at least one second planetary gear around the axis of the second sun gear. a first sun gear configured to be rotated by a first motor; at least one first planetary gear meshing with the first sun gear; a first internal gear having internal teeth that meshes with the at least one first planetary gear, the rotation of the first internal gear being restrained; and an output section receiving a reduced output from the first motor through a rotational member supported by a bearing and through a second internal gear, wherein the output section receives an output from a second motor through a planetary gear mechanism that includes the second internal gear, a Z second sun gear, and a second planetary gear, wherein the second sun gear is configured to be rotated by the second motor, wherein the at least one second planetary gear is meshing with the second sun gear, and wherein the second internal gear has internal teeth meshing with the at least one second planetary gear, characterized in that the rotational member is configured to rotate at the same speed and in the same direction as the revolution of the at least one first planetary gear around an axis of the first sun gear, the second internal gear is configured to rotate at the same speed and in the same direction as the rotational member, and the output section is configured to rotate at the same speed and in the same direction as the revolution of the at least one second planetary gear around the axis of the second sun gear.
Method for transmission of data corresponding to a service from among several communications services implementing a same frequency-time transform (IFFT) of size M irrespective of the service in order to generate orthogonal multi-carrier symbols of M samples starting from data symbols that may be adapted prior to mapping at the input of the transform according to a configuration depending on the service, such that, during a frame setup, it adds a cyclic extension of L = L 1 + L 2 samples in order to obtain a sequence of M + L samples, the method being characterized in that: - the configuration may allow no, one or several processing operations to be selected from among a padding (0 PAD), a discrete Fourier transform of size N and a spread for adapting the data and - it carries out a time-domain filtering according to a function f ( n) of the samples n of the sequence, L and M being non-zero natural numbers, L < M: f n = { a n n ∈ 0, L − 1 1 n ∈ L, M − 1 b n n ∈ M, M + L − 1 where a ( n) and b ( n) are monotonic functions and where a 2 ( n) + b 2 ( n + M) = 1 for n ∈ [0, L - 1], > 0 and L 2 ≥ 0 wherein b n = e − α n − M L β and a n = 1 − b 2 n + M for n ∈ [0, L - 1], α and β are parameters having a real value strictly greater than zero. - the configuration may allow no, one or several processing operations to be selected from among a padding (0 PAD), a discrete Fourier transform of size N and a spread for adapting the data and - it carries out a time-domain filtering according to a function f ( n) of the samples n of the sequence, L and M being non-zero natural numbers, L < M: f n = { a n n ∈ 0, L − 1 1 n ∈ L, M − 1 b n n ∈ M, M + L − 1 where a ( n) and b ( n) are monotonic functions and where a 2 ( n) + b 2 ( n + M) = 1 for n ∈ [0, L - 1], > 0 and L 2 ≥ 0 wherein b n = e − α n − M L β and a n = 1 − b 2 n + M for n ∈ [0, L - 1], α and β are parameters having a real value strictly greater than zero.
A method for pelletizing materials having a sharp melt point, a sharp melt point being defined as a narrow temperature range of transition from the solid state to the liquid state, in which the materials are extruded through die orifices of a die plate of a pelletizer to form strands, and the strands are cut into pellets, characterized in that (a) a wax or wax-like material having a sharp melt point is formed into a hot liquid melt, a temperature of said hot liquid melt being above a melt point of said wax or wax-like material; (b) the hot liquid melt material is cooled using cooling surfaces of a cooling section of within a cooling extruder to a temperature below said melt point to cause the wax or wax-like material to change state to be in an extrudable solid condition in said extruder, said step of cooling including exposing said wax or wax-like material to said extruder cooling surfaces to form cooled layers that are moved away from the extruder cooling surfaces and interspersed with warmer layers of wax or wax-like material into a mixture and then returning the mixture to the cooling surfaces for more heat energy reduction while said wax or wax-like material is in said cooling extruder, said cooling extruder being supported by a cooling system; (c) extruding the mixture of said wax or wax-like material in said solid state through die orifices of the die plate to form strands; and (d) cutting the solid extruded strands with a rotary cutter in a cutting chamber absent any liquid to form said wax or wax-like material into pellets. (a) a wax or wax-like material having a sharp melt point is formed into a hot liquid melt, a temperature of said hot liquid melt being above a melt point of said wax or wax-like material; (b) the hot liquid melt material is cooled using cooling surfaces of a cooling section of within a cooling extruder to a temperature below said melt point to cause the wax or wax-like material to change state to be in an extrudable solid condition in said extruder, said step of cooling including exposing said wax or wax-like material to said extruder cooling surfaces to form cooled layers that are moved away from the extruder cooling surfaces and interspersed with warmer layers of wax or wax-like material into a mixture and then returning the mixture to the cooling surfaces for more heat energy reduction while said wax or wax-like material is in said cooling extruder, said cooling extruder being supported by a cooling system; (c) extruding the mixture of said wax or wax-like material in said solid state through die orifices of the die plate to form strands; and (d) cutting the solid extruded strands with a rotary cutter in a cutting chamber absent any liquid to form said wax or wax-like material into pellets.
Arrangement for the manual unstacking of goods, in particular of cuboid piece goods such as containers, boxes or (beverage) crates, comprising an incoming goods end to receive collective load carriers loaded with the goods; at least two vertical or essentially vertically running transport lines, which are downstream of the incoming goods end, along which the collective load carriers loaded with the goods can be moved vertically upwards; at least two bridge conveyor systems (24, 26), which are downstream of the at least two vertical or essentially vertically running transport lines, onto which the individual goods can be passed on, wherein the at least two bridge conveyor systems (24, 26) are arranged on opposite sides (28, 28') of the at least two vertical transport lines and can be moved back and forth on the at least two bridge conveyor systems (24, 26) between the corresponding same sides (28, 28') of the at least two vertical transport lines across the full width of the sides (28, 28') of the at least two vertical transport lines perpendicularly to the flow of the goods; two horizontal or essentially horizontally running transport lines, which are downstream of the bridge conveyor systems (24, 26) and arranged perpendicularly to the flow of the goods on the two bridge conveyor systems (24, 26), to which the individual goods can be passed on and can be moved parallel to the direction of the back and forth movement of the two bridge conveyor systems (24, 26) to one end of the two horizontal transport lines and can be conveyed further from there; wherein the contact surfaces of the collective load carriers or the top side of the goods of the layer of goods situated immediately under the top layer and the contact surfaces of the at least two bridge conveyor systems (24, 26) coincide in one layer with at least one end associated with the at least two vertically running transport lines in such a way that the goods can be manually shifted from the top side of the top layer of the goods or from the contact surfaces of the collective load carriers onto the contact surfaces of the at least two bridge conveyor systems (24, 26) by an operator assigned to each of the two bridge conveyor systems (24, 26).
Method for indicating automatically identified flaw locations on or in a transparent test specimen, wherein a position of the flaw location of a flaw identified by an inspection device on or in the transparent test specimen is subsequently indicated, wherein an illuminated mark (21, 22, 23 and 24) marking the position of the identified flaw location of the flaw is produced by an illumination device in the area of at least one lateral edge of the transparent test specimen (3, 3') adjacent to the surface of the test specimen.
A method of determining, in a ray tracing system, whether a ray (202, 402, 422, 442) intersects a three-dimensional axis-aligned box (204, 404, 424, 444), the method comprising: determining whether a first condition is satisfied, wherein the first condition is, or is mathematically equivalent to, C x − C z D x D z ≤ H z D x D z + H x; determining whether a second condition is satisfied, wherein the second condition is, or is mathematically equivalent to, C y − C z D y D z ≤ H z D y D z + H y; determining whether a third condition is satisfied, wherein the third condition is, or is mathematically equivalent to, C x D y D z − C y D x D z ≤ H y D x D z + H x D y D z; and in response to determining that at least one of the first, second and third conditions is not satisfied, determining that the ray does not intersect the axis-aligned box, wherein C x, C y and C z are x, y and z components of a position of the centre of the axis-aligned box (204, 404, 424, 444) relative to an origin of the ray (202, 402, 422, 442), wherein H x, H y and H z are half widths of the axis-aligned box in the x, y and z dimensions, and wherein D x, D y and D z are x, y and z components of a direction vector of the ray. determining whether a first condition is satisfied, wherein the first condition is, or is mathematically equivalent to, C x − C z D x D z ≤ H z D x D z + H x; determining whether a second condition is satisfied, wherein the second condition is, or is mathematically equivalent to, C y − C z D y D z ≤ H z D y D z + H y; determining whether a third condition is satisfied, wherein the third condition is, or is mathematically equivalent to, C x D y D z − C y D x D z ≤ H y D x D z + H x D y D z; and in response to determining that at least one of the first, second and third conditions is not satisfied, determining that the ray does not intersect the axis-aligned box, wherein C x, C y and C z are x, y and z components of a position of the centre of the axis-aligned box (204, 404, 424, 444) relative to an origin of the ray (202, 402, 422, 442), wherein H x, H y and H z are half widths of the axis-aligned box in the x, y and z dimensions, and wherein D x, D y and D z are x, y and z components of a direction vector of the ray.
A method for scheduling downlink sub-frames, comprising the steps of: determining a set of downlink sub-frames to be scheduled by a piece of downlink allocation signaling for each user equipment, wherein the set of downlink sub-frames comprises at least two downlink sub-frames; transmitting one downlink sub-frame to the user equipment, wherein control information including the downlink allocation signaling of respective downlink sub-frames in the set of downlink sub-frames is carried in a control section of the downlink sub-frame; and transmitting data to the user equipment in data sections of the respective sub-frames in the set of downlink sub-frames; characterized in that, transmitting the data to the user equipment in the data sections of the respective sub-frames in the set of downlink sub-frames comprises: channel-encoding the same payload to obtain at least two redundancy versions; and transmitting the at least two redundancy versions to the user equipment in data sections of the at least two downlink sub-frames in the set of downlink sub-frames. determining a set of downlink sub-frames to be scheduled by a piece of downlink allocation signaling for each user equipment, wherein the set of downlink sub-frames comprises at least two downlink sub-frames; transmitting one downlink sub-frame to the user equipment, wherein control information including the downlink allocation signaling of respective downlink sub-frames in the set of downlink sub-frames is carried in a control section of the downlink sub-frame; and transmitting data to the user equipment in data sections of the respective sub-frames in the set of downlink sub-frames; characterized in that, transmitting the data to the user equipment in the data sections of the respective sub-frames in the set of downlink sub-frames comprises: channel-encoding the same payload to obtain at least two redundancy versions; and transmitting the at least two redundancy versions to the user equipment in data sections of the at least two downlink sub-frames in the set of downlink sub-frames. channel-encoding the same payload to obtain at least two redundancy versions; and transmitting the at least two redundancy versions to the user equipment in data sections of the at least two downlink sub-frames in the set of downlink sub-frames.
Air-cooled reciprocating compressor for vehicles, with a compressing unit having a plurality of cylinders (1a, 1b) arranged in series, which is driven by a motor, and a fan for producing a cooling air flow, wherein the fan is arranged on a connecting shaft and draws air in from the surroundings and delivers it to a downstream cooling air duct that at least partially surrounds the cylinders (1a, 1b), which duct is so designed that cooling air flows uniformly past all the cylinders (1a, 1b) of the compressing unit, wherein the fan is in the form of a radial fan arranged coaxially between the motor and the compressing unit, and wherein the cooling air duct conducts the flow around the cylinders (1a, 1b) on both sides of each cylinder (1a, 1b) and perpendicularly to the rotation direction of the compressing unit, characterised in that the cooling air is drawn into the area of an end of the connecting shaft on the drive input side of the compressing unit through openings distributed around the circumference of a flange and passes from there via the fan into the cooling air duct, cross-sections of the cooling air duct being designed such that the cylinder nearest to the fan undergoes a reduction of the cooling air supply owing to a constriction of the cross-section, so that the at least one other cylinder, which is farther away from the fan, receives approximately the same cooling air as the nearer cylinder.
A device for insertion of a deep-in-the-canal hearing aid into an ear canal comprising a base configured to fit into the conchal cavity of an ear; a chimney projecting distally from the base, the chimney configured to fit into the ear canal and comprising a channel sized to accommodate a deep-in-the-canal hearing aid; and a piston supported by a support structure (40, 42) such that a central longitudinal axis of the piston and a central longitudinal axis of the channel are collinearly aligned, the piston being distally moveable into the channel.