mhurhangee/ep-ind-claims huggingface dataset:
A chain (11; 12) for a zipper type electrical connector, comprising a plurality of engaging elements configured to be mated with a plurality of engaging elements of another such chain (12; 11) so as to be switched between an engaged state and a disengaged state, wherein a plurality of engaging elements of the chain (11; 12) are configured to be arranged close to and stagger with a plurality of engaging elements of the other chain (12; 11) in the engaging state to achieve an electrical conduction, and to be disengaged from the plurality of engaging elements of the other chain (12; 11) in the disengaged state to achieve an electrical insulation, each of the plurality of engaging elements comprises one electrical connection portion and one electrical insulation portion, wherein, in the engaged state, the electrical connection portion of at least one engaging element of one chain (11; 12) are connected to the electrical connection portion of at least one engaging element of the other chain (12; 11) one by one to achieve an electrical connection, and the electrical insulation portion of each engaging element electrically isolates two adjacent engaging elements on one same chain (11; 12), characterized in that, the electrical connection portion and the electrical insulation portion of each engaging element on the chain (11; 12) being arranged alternately, an engaging tooth and an engaging groove being formed on each of the electrical connection portion and the electrical insulation portion, and wherein, in the engaged state, the engaging tooth of the electrical connection portion of each engaging element of one chain (11;12) is engaged into the engaging groove of the electrical connection portion of each engaging element of the other chain (11;12), so as to achieve an electrical connection between the corresponding engaging elements; wherein the engaging tooth of the electrical insulation portion of each engaging element of one chain (11;12) is engaged into the engaging groove of the electrical insulation portion of each engaging element of the other chain (12;11) so as to achieve an electrical insulation between two engaging elements.
A medical device comprising: a housing defining an interior, wherein the interior has a blood compartment, a plasma compartment, and a fluid compartment and means separating the compartments from each other; a first filter (20, 110) disposed in the interior of the housing, wherein the first filter forms the means separating the blood compartment from the plasma compartment and wherein the first filter is configured to allow plasma components, but not cell components, of blood to pass through the first filter from the blood compartment to the plasma compartment; a second filter (30, 120) disposed in the interior of the housing, wherein the second filter forms the means separating the plasma compartment from the fluid compartment, and wherein the second filter is configured to allow fluid and small molecules less than 60,000 Da, but generally not larger components greater than 60,000Da, to pass through the second filter from the plasma compartment to the fluid compartment; a first outlet positioned on the blood compartment to exit cell enriched fluid from the blood compartment of the housing; an inlet in communication with the plasma compartment or the fluid compartment; an inlet in communication with the blood compartment; and a second outlet in communication with the fluid compartment. a housing defining an interior, wherein the interior has a blood compartment, a plasma compartment, and a fluid compartment and means separating the compartments from each other; a first filter (20, 110) disposed in the interior of the housing, wherein the first filter forms the means separating the blood compartment from the plasma compartment and wherein the first filter is configured to allow plasma components, but not cell components, of blood to pass through the first filter from the blood compartment to the plasma compartment; a second filter (30, 120) disposed in the interior of the housing, wherein the second filter forms the means separating the plasma compartment from the fluid compartment, and wherein the second filter is configured to allow fluid and small molecules less than 60,000 Da, but generally not larger components greater than 60,000Da, to pass through the second filter from the plasma compartment to the fluid compartment; a first outlet positioned on the blood compartment to exit cell enriched fluid from the blood compartment of the housing; an inlet in communication with the plasma compartment or the fluid compartment; an inlet in communication with the blood compartment; and a second outlet in communication with the fluid compartment.
Method for authenticating a driver in a motor vehicle, having a recognition device arranged in the motor vehicle for detecting actual data of the driver which are sent during authentication to a checking device which is arranged in an external station outside the motor vehicle, wherein the checking device compares the actual data with desired data and, if the actual data corresponds to the desired data, a release signal is transmitted from the external station to the motor vehicle, as a result of which a starting operation of the motor vehicle is made possible for the driver, the recognition device comprising a communication module for establishing a communication link via a mobile radio network, the recognition device being mobile, the desired data being read into the external station before authentication, and a read-in device being provided which detects desired data of the driver outside the motor vehicle and which are stored in the external station.
A method for transmitting feedback information to a base station by a user equipment, for massive antenna array based beamforming in a wireless communication system, the method comprising: receiving a first pilot pattern for a horizontal channel and a second pilot pattern for a vertical channel from the base station; estimating the horizontal channel by using the first pilot pattern; estimating the vertical channel by using the second pilot pattern; and transmitting the feedback information for the horizontal channel and the vertical channel to the base station, wherein the feedback information includes information about one channel of the horizontal channel and the vertical channel to which a closed-loop beamforming should be applied by the base station, and wherein the feedback information includes information about an effective antenna array for the horizontal channel and the vertical channel, wherein the information about the effective antenna array includes information about a number of antenna ports included in the effective antenna array and the number of antenna ports is reduced as relative mobility of the user equipment increases, wherein an open-loop beamforming should be applied to an associated channel by the base station when the number of antenna ports included in the effective antenna array is 0. receiving a first pilot pattern for a horizontal channel and a second pilot pattern for a vertical channel from the base station; estimating the horizontal channel by using the first pilot pattern; estimating the vertical channel by using the second pilot pattern; and transmitting the feedback information for the horizontal channel and the vertical channel to the base station, wherein the feedback information includes information about one channel of the horizontal channel and the vertical channel to which a closed-loop beamforming should be applied by the base station, and wherein the feedback information includes information about an effective antenna array for the horizontal channel and the vertical channel, wherein the information about the effective antenna array includes information about a number of antenna ports included in the effective antenna array and the number of antenna ports is reduced as relative mobility of the user equipment increases, wherein an open-loop beamforming should be applied to an associated channel by the base station when the number of antenna ports included in the effective antenna array is 0.
A dosing and mixing arrangement comprising: an exhaust conduit defining a central axis; a mixing conduit positioned within the exhaust conduit, the mixing conduit extending along the central axis from an upstream end to a downstream end; a dispersing arrangement for dispersing reactants disposed at the upstream end of the mixing conduit; and a bypass for allowing exhaust to bypass the upstream end of the mixing conduit; wherein an interior of the mixing conduit is devoid of structure in longitudinal alignment with an upstream face of the dispersing arrangement, characterized in that the bypass allows exhaust to enter the mixing conduit downstream of the dispersing arrangement. an exhaust conduit defining a central axis; a mixing conduit positioned within the exhaust conduit, the mixing conduit extending along the central axis from an upstream end to a downstream end; a dispersing arrangement for dispersing reactants disposed at the upstream end of the mixing conduit; and a bypass for allowing exhaust to bypass the upstream end of the mixing conduit; wherein an interior of the mixing conduit is devoid of structure in longitudinal alignment with an upstream face of the dispersing arrangement, characterized in that the bypass allows exhaust to enter the mixing conduit downstream of the dispersing arrangement.
Trocar system having a trocar, having a trocar sleeve, having an optical channel, which runs coaxially in the trocar and is intended for accommodating an optical unit, having a hollow transparent distal tip of the trocar, it being possible for the distal tip to be observed from within by means of the optical unit, and having at least one working channel, which leads continuously from the proximal end to the distal end in the trocar system and opens out in an exit opening in the region of the distal end, wherein the inner wall of the at least one working channel is formed by the trocar sleeve at least in an axial sub-region of its circumference, characterized in that at least one miniature instrument can be introduced through the at least one working channel such that a distal working element of the miniature instrument exits distally from the exit opening of the working channel and can be used upstream of the distal tip, while a proximal actuating element of the miniature instrument is located proximally outside the entry opening of the working channel.
Insulating body for an electrical connector unit (10, 10'), with at least two insertion channels (11A, 11B, 11C,...) into each of which a contact pin or a contact socket can be inserted, which are preferably aligned parallel to a main axis (x) of the insulating body and into each of which a preferably perpendicularly aligned fixing channel (12A; 12B; 12C;...) opens, in which a clamping screw is rotatably mounted by means of to which the assigned contact pin or the assigned contact socket can be acted upon mechanically, and to which an insulating collar (13A; 13B; 13C;...) is assigned, which is at least approximately coaxial to the assigned fixing channel (11A; 11B; 11C,...) on the outside of the insulating body is arranged, characterized in that preferably each of the insulating collars (13A; 13B; 13C;...) comprises at least one collar opening (131A, 131B, 131C,...) and that the insulating collars (13A; 13B; 13C;...) are designed as hollow cylinder elements, which adjoining the collar ends lack a cylinder segment, the collar ends preferably forming mutually parallel aligned edges.
A work vehicle comprising: an engine; an engine compartment containing the engine; a cooling compartment disposed to the rear of the engine compartment; a partition wall partitioning the engine compartment from the cooling compartment; a top plate having an outdoor air intake port (84, 85) and defining an upper surface of the engine compartment; a plate-like member extending forward from the partition wall and disposed below the outdoor air intake port; a first member disposed below the plate-like member inside the engine compartment; a duct having a first end part positioned to the rear of the first member inside the engine compartment, and a second end part positioned inside the cooling compartment; a cooling fan for exhausting air from the cooling compartment and disposed inside the cooling compartment; a cooling object member disposed in an air flow generated between the first end part and a gap between the first member and the plate-like member. an engine; an engine compartment containing the engine; a cooling compartment disposed to the rear of the engine compartment; a partition wall partitioning the engine compartment from the cooling compartment; a top plate having an outdoor air intake port (84, 85) and defining an upper surface of the engine compartment; a plate-like member extending forward from the partition wall and disposed below the outdoor air intake port; a first member disposed below the plate-like member inside the engine compartment; a duct having a first end part positioned to the rear of the first member inside the engine compartment, and a second end part positioned inside the cooling compartment; a cooling fan for exhausting air from the cooling compartment and disposed inside the cooling compartment; a cooling object member disposed in an air flow generated between the first end part and a gap between the first member and the plate-like member.
A method for laying and/or recovering a line in a body of water, comprising the following steps: - providing a laying device comprising at least two upstream gripping members facing each other and at least two downstream gripping members facing each other, the gripping members facing each other (72A; 72B) defining a line circulation passage in which the line is locally gripped; each gripping member (72A; 72B) comprising a line movement member and at least one motor for setting the movement member in motion that can be activated to deliver a line movement torque; the laying device comprising a control unit for each motor, the method comprising the following steps: - lowering the line to successive stop positions; - successive stopping of the line in each successive stop position; characterised by the following steps, carried out prior to each successive stopping of the line in a successive stop position: - limited downward overrun of at least 0.5m past the successive stop position to reach a successive change of direction position; - time delay in the successive change of direction position; - limited raising of the line from the successive change of direction position to the successive stop position. - providing a laying device comprising at least two upstream gripping members facing each other and at least two downstream gripping members facing each other, the gripping members facing each other (72A; 72B) defining a line circulation passage in which the line is locally gripped; each gripping member (72A; 72B) comprising a line movement member and at least one motor for setting the movement member in motion that can be activated to deliver a line movement torque; the laying device comprising a control unit for each motor, the method comprising the following steps: - lowering the line to successive stop positions; - successive stopping of the line in each successive stop position; - limited downward overrun of at least 0.5m past the successive stop position to reach a successive change of direction position; - time delay in the successive change of direction position; - limited raising of the line from the successive change of direction position to the successive stop position.
A method (1700; 1800) for wireless communication performed by a user equipment, UE, comprising: transmitting (1705; 1805) to a base station a feedback reporting capability comprising a first feedback processing capability and a second feedback processing capability; receiving from the base station a plurality of feedback configurations, wherein a first set of the plurality of feedback configurations associated with the first feedback processing capability is configured to not exceed the first feedback processing capability and a second set of the plurality of feedback configurations associated with the second feedback processing capability is configured to not exceed the second feedback processing capability; performing (1710; 1820) a plurality of feedback processing operations according to the first and second feedback processing capabilities, the plurality of feedback processing operations comprising at least one processing operation associated with a channel state information report and at least one processing operation associated with a beam report; and transmitting (1715; 1825) to the base station a plurality of feedback reports associated with the plurality of feedback configurations comprising the channel state information report and the beam report. transmitting (1705; 1805) to a base station a feedback reporting capability comprising a first feedback processing capability and a second feedback processing capability; receiving from the base station a plurality of feedback configurations, wherein a first set of the plurality of feedback configurations associated with the first feedback processing capability is configured to not exceed the first feedback processing capability and a second set of the plurality of feedback configurations associated with the second feedback processing capability is configured to not exceed the second feedback processing capability; performing (1710; 1820) a plurality of feedback processing operations according to the first and second feedback processing capabilities, the plurality of feedback processing operations comprising at least one processing operation associated with a channel state information report and at least one processing operation associated with a beam report; and transmitting (1715; 1825) to the base station a plurality of feedback reports associated with the plurality of feedback configurations comprising the channel state information report and the beam report.
A computation system (1, 2, 3, 4) that includes a plurality of devices (11, 12-n, 22-n, 32-n, 42-n) which perform information processing, wherein the plurality of devices (11, 12-n, 22-n, 32-n, 42-n) include a computation device, a first external device, and a second external device, and the computation device (12-n, 22-n, 32-n, 42-n) includes an input unit (122-n) adapted to accept a first processing request output from the first external device, a first security judgment unit (124-n, 224-n, 324-n, 424-n) adapted to judge whether the first processing request satisfies a predetermined first security level, a first processing unit (125-n, 325-n, 425-n) adapted to execute first processing, which does not involve outputting information to the second external device, of processing based on the first processing request until the first processing request is judged to satisfy the first security level, and a second processing unit (126-n, 326-n, 426-n) adapted to execute second processing, which involves outputting information to the second external device, of the processing based on the first processing request after the first processing request is judged to satisfy the first security level, characterized in that: the computation device includes a cancellation processing unit that does not output, even when an error occurs in the first processing, a second processing request which requests cancellation of the processing performed by the first external device until the first processing request is judged to satisfy the first security level, and that outputs, after an error occurs in the first processing and the first processing request is judged to satisfy the first security level, the second processing request to the first external device. an input unit (122-n) adapted to accept a first processing request output from the first external device, a first security judgment unit (124-n, 224-n, 324-n, 424-n) adapted to judge whether the first processing request satisfies a predetermined first security level, a first processing unit (125-n, 325-n, 425-n) adapted to execute first processing, which does not involve outputting information to the second external device, of processing based on the first processing request until the first processing request is judged to satisfy the first security level, and a second processing unit (126-n, 326-n, 426-n) adapted to execute second processing, which involves outputting information to the second external device, of the processing based on the first processing request after the first processing request is judged to satisfy the first security level,
A computing device comprising: interface circuitry configured to exchange signals, via a network, with a plurality of light fixtures (120a-c) and a mobile device; processing circuitry communicatively coupled to the interface circuitry and configured to: responsive to receiving, via the interface circuitry, a network request from the mobile device, control, via the interface circuitry, the plurality of light fixtures (120a-c) to each optically transmit a respective challenge code; approve or reject the network request based respectively on whether or not a group of the challenge codes is received from the mobile device via the interface circuitry, each challenge code in the group being optically receivable at a location authorized for approving the network request, wherein the network request is a request to control a device at, or substantially near, the location authorized for approving the network request, the computing device further being configured to change the challenge codes. interface circuitry configured to exchange signals, via a network, with a plurality of light fixtures (120a-c) and a mobile device; processing circuitry communicatively coupled to the interface circuitry and configured to: responsive to receiving, via the interface circuitry, a network request from the mobile device, control, via the interface circuitry, the plurality of light fixtures (120a-c) to each optically transmit a respective challenge code; approve or reject the network request based respectively on whether or not a group of the challenge codes is received from the mobile device via the interface circuitry, each challenge code in the group being optically receivable at a location authorized for approving the network request, responsive to receiving, via the interface circuitry, a network request from the mobile device, control, via the interface circuitry, the plurality of light fixtures (120a-c) to each optically transmit a respective challenge code; approve or reject the network request based respectively on whether or not a group of the challenge codes is received from the mobile device via the interface circuitry, each challenge code in the group being optically receivable at a location authorized for approving the network request, wherein the network request is a request to control a device at, or substantially near, the location authorized for approving the network request, the computing device further being configured to change the challenge codes.
Tyre made of rubbery material comprising a sidewall and a pattern formed in this sidewall, the said sidewall extending along a mean surface S, the said pattern comprising a plurality of recessed elements, each recessed element having the form of a part of a sphere, the recessed elements meeting at connection zones, characterized in that these connection zones extend above the mean surface S of the sidewall and in that, viewed in cross section, all or part of the recessed elements subtend an angle (α) less than or equal to 70°, the said angle (α) corresponding to the angle formed by two segments passing through the connection zones 9 and meeting at the centre of the recessed element 7.