mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving DASH, dynamic streaming over HTTP, hypertext transfer protocol, data in a client device over a network, comprising: receiving a media presentation description, MPD, from an HTTP server, wherein the MPD contains uniform resource identifiers, URIs, for a media presentation made up of a plurality of ordered media segments, and wherein, for each of the ordered media segments, the MPD contains URIs for the same media content at different bitrates, referred to as representations, and includes for each representation a bitrate, characterized in that the MPD further includes a quality measure related to the quality of experience, QoE, that results when that representation is played, wherein the quality measure is generated by a media server providing the media segments; and downloading selected representations for playback at designated playback times from the HTTP server using the URIs in the MPD, wherein representations received before their designated playback times are stored in a buffer, and wherein representations are selected for downloading as a function of the amount of data currently stored in the buffer, the bitrates and quality measures of the representations, and an estimated currently available throughput capacity. receiving a media presentation description, MPD, from an HTTP server, wherein the MPD contains uniform resource identifiers, URIs, for a media presentation made up of a plurality of ordered media segments, and wherein, for each of the ordered media segments, the MPD contains URIs for the same media content at different bitrates, referred to as representations, and includes for each representation a bitrate, characterized in that the MPD further includes a quality measure related to the quality of experience, QoE, that results when that representation is played, wherein the quality measure is generated by a media server providing the media segments; and downloading selected representations for playback at designated playback times from the HTTP server using the URIs in the MPD, wherein representations received before their designated playback times are stored in a buffer, and wherein representations are selected for downloading as a function of the amount of data currently stored in the buffer, the bitrates and quality measures of the representations, and an estimated currently available throughput capacity.
A pedal vehicle for moving along a route at the whim of a user, comprising a frame, a seat supported by the frame, at least two wheels (15a, 15b, 15c) arranged respectively at the front and rear of the seat, a steering system, a first drive member adapted to be operated by the user's upper limbs, a second drive member adapted to be operated by the user's lower limbs, and a third drive member adapted to be operated by the user's lower limbs, at least one brake and an electrical stimulation device comprising a control module, a data measurement module and at least one electrode adapted to stimulate at least one lower limb to be stimulated, the control module being configured to process data relating to the user's intention and comprising a computer program configured to transmit to the at least one electrode by the control module electrical stimulations according to the data relating to the user's intention, characterised in that said user intention data comprises the power or force intentionally developed by the user's upper limbs, in that a step of determining the power intentionally developed by the lower limbs is performed, and in that said electrical stimulations are determined so as to ensure a predetermined relationship between the power developed by the upper limbs and the total power developed by the lower limbs, said total power corresponding to the sum of the power developed intentionally by the lower limbs and the power developed by the lower limbs as a result of the stimulation. characterised in that said user intention data comprises the power or force intentionally developed by the user's upper limbs, in that a step of determining the power intentionally developed by the lower limbs is performed, and in that said electrical stimulations are determined so as to ensure a predetermined relationship between the power developed by the upper limbs and the total power developed by the lower limbs, said total power corresponding to the sum of the power developed intentionally by the lower limbs and the power developed by the lower limbs as a result of the stimulation.
A pivot bearing, in particular, a scissor-type bearing of a pivot fitting or pivot- / tilting fitting of a window, a French window or the like, having a bearing fork part,having a bearing eye part insertable between fork legs (3, 4) of the bearing fork part, having a bearing bolt penetrating the fork legs (3, 4) and the bearing eye part and having a bolt fastening on at least one of the fork legs (3, 4), with a securing element (7, 8) of the bolt fastening, which can be moved between a securing position engaged in a latching recess (9, 10) of the bearing bolt and a release position disengaged with the latching recess (9, 10), wherein the securing element (7, 8) is designed in the shape of a fork on its end facing the bearing bolt with two latching arms (13, 14) and the latching arms (13, 14) engage with the latching recess (9, 10) in the securing position on opposite sides of the bearing bolt and can be moved spring-elastically perpendicular to the bearing bolt, characterized in that the latching arms (13, 14) are wider than the latching recess (9, 10) and in the securing position have holding ribs (15, 16) projecting into the latching recess (9, 10) and that the holding ribs (15, 16) have ramps (22, 23) pointing in the axial direction of the bearing bolt.
A fastening clip that is configured to securely connect a first component to a second component, the fastening clip comprising: - a first frame connected to an opposed second frame by an arcuate transition beam, wherein each of the first and second frames comprises: - an exterior contact finger that is configured to securely abut into a first outer surface portion of the first component around at least a portion of a first opening formed through the first component; and - a contact prong that is configured to abut into a second outer surface portion of the first component, characterized by an interior contact finger that is configured to extend into the first opening; wherein the exterior contact finger is split away from the interior contact finger. - a first frame connected to an opposed second frame by an arcuate transition beam, wherein each of the first and second frames comprises: - an exterior contact finger that is configured to securely abut into a first outer surface portion of the first component around at least a portion of a first opening formed through the first component; and - a contact prong that is configured to abut into a second outer surface portion of the first component,
An electrostatic dust collecting apparatus comprising: a plurality of first electrodes and a plurality of second electrodes that are alternately stacked along a direction; a plurality of support members configured to space apart the first electrodes and the second electrodes from each other; and a support bar formed to extend along the direction, wherein each of the plurality of support members includes at least one electrode insertion groove formed to allow at least one of a first electrode or a second electrode to be inserted and a coupling hole formed along the direction, wherein the support bar is inserted in the coupling holes of the plurality of support members, characterized in that each of the plurality of support members is formed of an insulating material; and the support members are stacked in the direction while being in contact with each other. a plurality of first electrodes and a plurality of second electrodes that are alternately stacked along a direction; a plurality of support members configured to space apart the first electrodes and the second electrodes from each other; and a support bar formed to extend along the direction, wherein each of the plurality of support members includes at least one electrode insertion groove formed to allow at least one of a first electrode or a second electrode to be inserted and a coupling hole formed along the direction, wherein the support bar is inserted in the coupling holes of the plurality of support members, characterized in that each of the plurality of support members is formed of an insulating material; and the support members are stacked in the direction while being in contact with each other.
A crossover wireless tire monitoring system device for measuring one or more parameters relating to the condition of the tire, the crossover wireless tire monitoring system device includes: a) a valve stem; b) an internal module with a built-in sensor that is adapted to be integrally fixed or to be detachable from the valve stem; c) an external module with a built-in battery that is adapted to be detachable from the valve stem; characterized in that the valve stem is a single head or dual head valve, such that a user does not require to remove or detach the built-in battery of the external module during air refilling in the event that dual head valve is used; wherein the internal module and the external module are collaboratively connected through the valve stem to form a single operative monitoring system device, said built-in sensor of the internal module is powered by the built-in battery of the external module through cable wires to a power connector, and said power connector serves to provide electrical interface for easy plug and play installation of the internal module and external module; wherein the internal module is located and embedded at inner rim of the tire such that it provides anti-theft feature to the built-in sensor, and said built-in sensor is further provided with an air inlet hole adapted for accuracy measurement of one or more parameters relating to the condition of the tire, and wherein the external module is mounted and exposed on outer rim of the tire for easy battery replacement. a) a valve stem; b) an internal module with a built-in sensor that is adapted to be integrally fixed or to be detachable from the valve stem; c) an external module with a built-in battery that is adapted to be detachable from the valve stem; wherein the internal module and the external module are collaboratively connected through the valve stem to form a single operative monitoring system device, said built-in sensor of the internal module is powered by the built-in battery of the external module through cable wires to a power connector, and said power connector serves to provide electrical interface for easy plug and play installation of the internal module and external module; wherein the internal module is located and embedded at inner rim of the tire such that it provides anti-theft feature to the built-in sensor, and said built-in sensor is further provided with an air inlet hole adapted for accuracy measurement of one or more parameters relating to the condition of the tire, and wherein the external module is mounted and exposed on outer rim of the tire for easy battery replacement.
A display assembly, comprising: a display screen, comprising a bottom face and a display face, the display screen defining a light transmitting hole in the display screen and at least penetrating through the bottom face; and a positioning member, located at a periphery of the light transmitting hole, and configured to limit a movement of a functional device received in the light transmitting hole in a direction parallel to the bottom face; the display assembly being characterized in that, the positioning member is positioned on the bottom face, the positioning member is formed in a ring shape, disposed around the light transmitting hole, and defines an annular through hole, and the diameter of the annular through hole is equal to or larger than the diameter of the light transmitting hole. a display screen, comprising a bottom face and a display face, the display screen defining a light transmitting hole in the display screen and at least penetrating through the bottom face; and a positioning member, located at a periphery of the light transmitting hole, and configured to limit a movement of a functional device received in the light transmitting hole in a direction parallel to the bottom face; the display assembly being characterized in that, the positioning member is positioned on the bottom face, the positioning member is formed in a ring shape, disposed around the light transmitting hole, and defines an annular through hole, and the diameter of the annular through hole is equal to or larger than the diameter of the light transmitting hole.
A treadmill for a pet, comprising: a base; a first roller (112 or 122) and a second roller (111 or 121) spaced apart from each other and supported in the base; a first belt (110 or 120) forming a first closed loop around the first roller (112 or 122) and the second roller (111 or 121); a handle rotatably coupled to a middle portion of the base, the handle being configured to rotate to a first position to cross over the first belt (110 or 120) and to a second position adjacent to a side of the base in a storage configuration of the treadmill; and a sensor provided in the handle to detect a pet on the first belt (110 or 120). a base; a first roller (112 or 122) and a second roller (111 or 121) spaced apart from each other and supported in the base; a first belt (110 or 120) forming a first closed loop around the first roller (112 or 122) and the second roller (111 or 121); a handle rotatably coupled to a middle portion of the base, the handle being configured to rotate to a first position to cross over the first belt (110 or 120) and to a second position adjacent to a side of the base in a storage configuration of the treadmill; and a sensor provided in the handle to detect a pet on the first belt (110 or 120).
A separating device comprising an intake head housing, a feed drum, as well as two axial separating rotors, sections of one end of which protrude into the intake head housing, wherein the intake head housing has a flat intake section which in each case extends over the width of the respective axial separating rotor between which a ramp-shaped housing section extending axially parallel to the conveying direction of the axial separating rotors is disposed, which assists in dividing a flow of harvested material which is fed from the feed drum into sub-flows to be fed to the axial separating rotors, wherein at least one separating element consisting of at least a first material is associated with the ramp-shaped housing section, characterized in that the at least one separating element has a main body, which extends perpendicular to the surface of the housing section, and has an end face which is formed as a cutting edge at least in sections, wherein a coating produced from a more wear-resistant second material is disposed on at least sections of the end face and extends substantially centrally in the longitudinal direction of the end face.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: reporting UE capability information related to positioning; receiving a positioning reference signal, PRS; and reporting measurement information including i) first information about a reference signal received power, RSRP, value based on the PRS, wherein the UE capability information reported by the UE is configured to report that the UE has an additional arrival path report capability, and the measurement information is configured to further comprise ii) second information about a second arrival path of the PRS, wherein the second arrival path is not a first arrival path detected first in time, and the first arrival path and the second arrival path being related to the same PRS transmission on a specific PRS resource, and wherein ii) the second information about the second arrival path comprises a first content regarding a received power value for the second arrival path and a second content regarding a timing for the second arrival path. reporting UE capability information related to positioning; receiving a positioning reference signal, PRS; and reporting measurement information including i) first information about a reference signal received power, RSRP, value based on the PRS, wherein the UE capability information reported by the UE is configured to report that the UE has an additional arrival path report capability, and the measurement information is configured to further comprise ii) second information about a second arrival path of the PRS, wherein the second arrival path is not a first arrival path detected first in time, and the first arrival path and the second arrival path being related to the same PRS transmission on a specific PRS resource, and wherein ii) the second information about the second arrival path comprises a first content regarding a received power value for the second arrival path and a second content regarding a timing for the second arrival path.
A method performed by a content providing device for determining a decoding complexity associated with media content, the method comprising: receiving decoding complexity feedback from a plurality of reference wireless transmit/receive units, WTRUs, wherein the decoding complexity feedback received from each reference WTRU of the plurality of reference WTRUs is associated with receiving, decoding, or displaying media content at the reference WTRU, wherein the decoding complexity indicates at least one of power and/or time used to receive, decode, or display the media content at the reference WTRU; receiving a request for the media content from a WTRU; determining a decoding complexity associated with the media content, wherein the decoding complexity is based on the decoding complexity feedback received from the plurality of reference WTRUs; inserting the decoding complexity that is determined based on the decoding complexity feedback received from the plurality of reference WTRUs into a media presentation descriptor, MPD, file associated with the media content; and sending the MPD file that comprises the determined decoding complexity to the WTRU. receiving decoding complexity feedback from a plurality of reference wireless transmit/receive units, WTRUs, wherein the decoding complexity feedback received from each reference WTRU of the plurality of reference WTRUs is associated with receiving, decoding, or displaying media content at the reference WTRU, wherein the decoding complexity indicates at least one of power and/or time used to receive, decode, or display the media content at the reference WTRU; receiving a request for the media content from a WTRU; determining a decoding complexity associated with the media content, wherein the decoding complexity is based on the decoding complexity feedback received from the plurality of reference WTRUs; inserting the decoding complexity that is determined based on the decoding complexity feedback received from the plurality of reference WTRUs into a media presentation descriptor, MPD, file associated with the media content; and sending the MPD file that comprises the determined decoding complexity to the WTRU.
A method of imaging a sample container and/or a specimen in a sample container, comprising: enclosing at least a portion of a sample container with a single-piece moveable hood, the single-piece moveable hood having a wall (321 or 329) with one or more openings (404A - 404C) extending between an interior of the single-piece moveable hood and an exterior of the single-piece moveable hood; and generating image data of the sample container using one or more imaging devices (350A-350C) positioned external to the single-piece moveable hood, the one or more imaging devices (350A-350C) having a line of sight to the sample container through the one or more openings (404A - 404C), the method being characterized by enclosing at least a portion of the sample container with the single-piece moveable hood, wherein the single-piece moveable hood has a closed state wherein it is configured to at least partially enclose the sample container and an open state wherein it is configured not to at least partially enclose a sample container, and wherein enclosing at least a portion of the sample container with the single-piece moveable hood comprises moving the single-piece moveable hood along an arcuate path. enclosing at least a portion of a sample container with a single-piece moveable hood, the single-piece moveable hood having a wall (321 or 329) with one or more openings (404A - 404C) extending between an interior of the single-piece moveable hood and an exterior of the single-piece moveable hood; and generating image data of the sample container using one or more imaging devices (350A-350C) positioned external to the single-piece moveable hood, the one or more imaging devices (350A-350C) having a line of sight to the sample container through the one or more openings (404A - 404C), the method being characterized by enclosing at least a portion of the sample container with the single-piece moveable hood, wherein the single-piece moveable hood has a closed state wherein it is configured to at least partially enclose the sample container and an open state wherein it is configured not to at least partially enclose a sample container, and wherein enclosing at least a portion of the sample container with the single-piece moveable hood comprises moving the single-piece moveable hood along an arcuate path.
A method for starting up a hoisting gear from a braked position in which a hoisting gear brake holds a hoisting load, in which a starting torque is built up by a hoisting gear drive against the closed hoisting gear brake and the hoisting gear brake is released upon or after reaching the starting torque, wherein the current hoisting load is detected by means of a load detection device when the hoisting gear brake is closed, wherein the starting torque is adjusted by a hoisting gear controller with reference to the detected current hoisting load such that the hoisting force provided by the starting torque of the hoisting gear corresponds to the detected current hoisting load, characterized in that the starting torque is calculated as a fraction of the nominal motor torque of the hoisting gear drive and from the calculated fraction of the nominal motor torque a starting value for a frequency converter is calculated, by means of which the frequency converter then actuates the hoisting gear drive such that the desired fraction of the nominal motor torque is built up as a starting torque.