mhurhangee/ep-ind-claims huggingface dataset:
A method for transmitting a data packet, comprising: determining, by a user equipment, UE, that service data unit, SDU, delivery needs to be performed for an erroneous data packet born on a radio bearer, RB, of a service; determining, by the UE, that a received data packet is the erroneous data packet, if the received data packet is not received correctly after maximum retransmission times are achieved; and delivering, by the UE, the SDU in the erroneous data packet to a radio link control, RLC, entity corresponding to the RB, and sending, by the RLC entity in the UE, the SDU to an upper layer of the RLC entity; characterized in that before the determining, by a UE, that SDU delivery needs to be performed for an erroneous data packet born on an RB, the method further comprises: receiving, by the UE, configuration information of the service from a base station, wherein the configuration information comprises indication information that the SDU delivery needs to be performed and information of the RB; the determining, by a UE, that SDU delivery needs to be performed for an erroneous data packet born on an RB, comprises: determining, by the UE, according to the indication information, that the SDU delivery needs to be performed for the erroneous data packet born on the RB. determining, by a user equipment, UE, that service data unit, SDU, delivery needs to be performed for an erroneous data packet born on a radio bearer, RB, of a service; determining, by the UE, that a received data packet is the erroneous data packet, if the received data packet is not received correctly after maximum retransmission times are achieved; and delivering, by the UE, the SDU in the erroneous data packet to a radio link control, RLC, entity corresponding to the RB, and sending, by the RLC entity in the UE, the SDU to an upper layer of the RLC entity; characterized in that before the determining, by a UE, that SDU delivery needs to be performed for an erroneous data packet born on an RB, the method further comprises: receiving, by the UE, configuration information of the service from a base station, wherein the configuration information comprises indication information that the SDU delivery needs to be performed and information of the RB; the determining, by a UE, that SDU delivery needs to be performed for an erroneous data packet born on an RB, comprises: determining, by the UE, according to the indication information, that the SDU delivery needs to be performed for the erroneous data packet born on the RB.
A system for reducing leakage air in a gas turbine engine having an axis (A-A 1) of rotation, the system comprising: a first static component comprising a main body (322; 422) and an axial member (310; 410) extending aft from the main body (322; 422), having a first radial face (312; 412); and a second static component comprising a second radial face (314; 414) at least partially facing the first radial face (312; 412), characterised by the first static component having a first abradable material coupled to the first radial face (312; 412); the second static component having an abrasive material coupled to the second radial face (314; 414) of the second static component; and the first abradable material and abrasive material being axially aligned for a distance in the axial direction to form a flow restriction (324; 424), wherein the distance is sufficiently large to ensure that the flow restriction (324; 424) continues to restrict a flow under standard operating conditions of the gas turbine engine. a first static component comprising a main body (322; 422) and an axial member (310; 410) extending aft from the main body (322; 422), having a first radial face (312; 412); and a second static component comprising a second radial face (314; 414) at least partially facing the first radial face (312; 412), characterised by the first static component having a first abradable material coupled to the first radial face (312; 412); the second static component having an abrasive material coupled to the second radial face (314; 414) of the second static component; and the first abradable material and abrasive material being axially aligned for a distance in the axial direction to form a flow restriction (324; 424), wherein the distance is sufficiently large to ensure that the flow restriction (324; 424) continues to restrict a flow under standard operating conditions of the gas turbine engine.
An analyte detection package, comprising: a chamber; a surface-enhanced luminescence analyte stage within the chamber; a tunable lens integrated with the package to focus radiation onto the analyte stage and configured to move relative to the analyte stage to adjust the focus of the lens; a substrate to support the analyte stage; a housing to support the lens, the housing extending from the substrate to form the chamber therebetween; and an actuator to move the lens relative to the substrate to adjust the focus of the lens, characterized in that the actuator is configured to move a portion of the housing supporting the lens relative to the substrate to move the lens relative to the analyte stage. a chamber; a surface-enhanced luminescence analyte stage within the chamber; a tunable lens integrated with the package to focus radiation onto the analyte stage and configured to move relative to the analyte stage to adjust the focus of the lens; a substrate to support the analyte stage; a housing to support the lens, the housing extending from the substrate to form the chamber therebetween; and an actuator to move the lens relative to the substrate to adjust the focus of the lens, characterized in that the actuator is configured to move a portion of the housing supporting the lens relative to the substrate to move the lens relative to the analyte stage.
A DC-DC converter configured to supply a display panel with first and second power voltages, the DC-DC converter comprising: a first converting module configured to convert an input power voltage (Vin) into the first power voltage (ELVDD) in response to a control signal, and to output the first power voltage (ELVDD) to a first output terminal; and a second converting module configured to convert the input power voltage (Vin) into a second power voltage (ELVSS) that is lower than the first power voltage (ELVDD) in response to the control signal, and to output the second power voltage (ELVSS) to a second output terminal, the second converting module comprising: a first inverting converter configured to generate the second power voltage (ELVSS) corresponding to the input power voltage (Vin) regardless of an amount of the detected drive current, characterized in that the DC-DC converter further comprises a sensor configured to detect a drive current of the display panel when the first power voltage (ELVDD) is output and the second converting module further comprises a second inverting converter configured to selectively generate the second power voltage (ELVSS) corresponding to the input power voltage (Vin) and according to the amount of the detected drive current. a first converting module configured to convert an input power voltage (Vin) into the first power voltage (ELVDD) in response to a control signal, and to output the first power voltage (ELVDD) to a first output terminal; and a second converting module configured to convert the input power voltage (Vin) into a second power voltage (ELVSS) that is lower than the first power voltage (ELVDD) in response to the control signal, and to output the second power voltage (ELVSS) to a second output terminal, the second converting module comprising: a first inverting converter configured to generate the second power voltage (ELVSS) corresponding to the input power voltage (Vin) regardless of an amount of the detected drive current, characterized in that the DC-DC converter further comprises a sensor configured to detect a drive current of the display panel when the first power voltage (ELVDD) is output and the second converting module further comprises a second inverting converter configured to selectively generate the second power voltage (ELVSS) corresponding to the input power voltage (Vin) and according to the amount of the detected drive current.
A window or door frame structure, such as for a roof window, said frame structure comprising, at a side surface facing inwards in the mounted position of the window or door assembly, at least one at least partially circumferential groove adapted for receiving an end portion of a lining structure, wherein said groove in at least a part of its longitudinal extension has a cross sectional surface profile having at least two sections (9a, 9b), each said section (9a, 9b) having a substantially rectangular shape and that said at least two sections (9a, 9b) further comprise different depths, characterized in that said groove comprises at least one positioning element arranged such as to provide said at least two sections (9a, 9b), said positioning element being chosen from the group consisting of a slat, a strip and a fitting, preferably an angle fitting.
An imaging system comprising an image capture apparatus for capturing an image of an operator work site, the image including depth information; and a display apparatus in communication with the image capture apparatus, the display apparatus comprising at least one display screen and being arranged to receive the image captured by the image capture apparatus, including the depth information, and display to the operator the image captured by the image capture apparatus, including the depth information, on the display screen; wherein the display screen is located between the operator's eyes and the position of the work site, characterized in that: the imaging system further comprises means configured to obtain real-time information of a position relating to one or both of the operator's eyes, and means configured to provide the depth information in the image by adjusting the image displayed on the at least one display screen to show a change in view corresponding to a change in said position relating to one or both of the operator's eyes such that the depth information is conveyed to the operator by parallax. the imaging system further comprises means configured to obtain real-time information of a position relating to one or both of the operator's eyes, and means configured to provide the depth information in the image by adjusting the image displayed on the at least one display screen to show a change in view corresponding to a change in said position relating to one or both of the operator's eyes such that the depth information is conveyed to the operator by parallax.
A respiratory interface apparatus (6, 6'), comprising: a patient contacting portion structured to engage a face of the patient, wherein the patient contacting portion is part of a mask body; a common chamber fluidly coupled to the patient contacting portion; a first control chamber (26, 26'); a first flow regulating mechanism (32, 58) provided between the first control chamber (26, 26') and the common chamber; a second control chamber (28, 28'); a second flow regulating mechanism (34, 60) provided between the second control chamber (28, 28') and the common chamber; a first conduit fluidly coupled to the first control chamber (26, 26'); a second conduit fluidly coupled to the second control chamber (28, 28'); wherein the common chamber, the first control chamber (26, 26') and the second control chamber (28, 28') are coupled to the mask body and together form a patient interface assembly; characterized in that the respiratory interface apparatus (6, 6') further comprises a pressure source (4, 4') structured to generate a positive flow of breathing gas to the patient and a negative flow from the patient, the first conduit and the second conduit being fluidly coupled to the pressure source (4, 4'). a patient contacting portion structured to engage a face of the patient, wherein the patient contacting portion is part of a mask body; a common chamber fluidly coupled to the patient contacting portion; a first control chamber (26, 26'); a first flow regulating mechanism (32, 58) provided between the first control chamber (26, 26') and the common chamber; a second control chamber (28, 28'); a second flow regulating mechanism (34, 60) provided between the second control chamber (28, 28') and the common chamber; a first conduit fluidly coupled to the first control chamber (26, 26'); a second conduit fluidly coupled to the second control chamber (28, 28'); wherein the common chamber, the first control chamber (26, 26') and the second control chamber (28, 28') are coupled to the mask body and together form a patient interface assembly; characterized in that the respiratory interface apparatus (6, 6') further comprises a pressure source (4, 4') structured to generate a positive flow of breathing gas to the patient and a negative flow from the patient, the first conduit and the second conduit being fluidly coupled to the pressure source (4, 4').
Object recognition apparatus for vehicles, having at least one sensor in the form of an ultrasonic sensor, a filter device, wherein the sensor and the filter device can be arranged in a common housing, and an analysis device, wherein the sensor is configured to capture signals from at least one ultrasonic detection sequence from an object (4, 6) to be recognized, wherein the filter device is configured to filter the captured signals and to then supply them to the analysis device, and wherein the analysis device is configured to recognize the object (4, 6) by analysing the supplied filtered signals, - wherein the filter device has an averaging unit which is configured to average the profile of the amplitudes of the captured signals over time, - wherein the filter device has a non-linear filter unit which is provided on the basis of a linear low-pass filter with a variable time constant and is configured to filter the captured signals, - wherein the object recognition apparatus is configured, in order to analyse and recognize the object (4, 6), to supply a value profile corresponding to the difference between the averaged amplitude profile over time and the filtered signals, as determined by means of a component, to the analysis device, and - wherein the object recognition apparatus is configured to set the variable time constant on the basis of the deviation between the filtered signals and the captured signals, as determined by means of a deviation calculation component, and on the basis of the averaged amplitude profile. - wherein the filter device has an averaging unit which is configured to average the profile of the amplitudes of the captured signals over time, - wherein the filter device has a non-linear filter unit which is provided on the basis of a linear low-pass filter with a variable time constant and is configured to filter the captured signals, - wherein the object recognition apparatus is configured, in order to analyse and recognize the object (4, 6), to supply a value profile corresponding to the difference between the averaged amplitude profile over time and the filtered signals, as determined by means of a component, to the analysis device, and - wherein the object recognition apparatus is configured to set the variable time constant on the basis of the deviation between the filtered signals and the captured signals, as determined by means of a deviation calculation component, and on the basis of the averaged amplitude profile.
A method comprising: (a) irradiating a target (215, 415, 510) with a beam of deuterons to generate a beam of neutrons; and (b) irradiating a radium-226 target (230, 430, 435, 440, 520) with the beam of neutrons (220, 420) to generate radium-225. (a) irradiating a target (215, 415, 510) with a beam of deuterons to generate a beam of neutrons; and (b) irradiating a radium-226 target (230, 430, 435, 440, 520) with the beam of neutrons (220, 420) to generate radium-225.
A delivery unit of a drug delivery device, the delivery unit comprising a subcutaneous delivery mechanism having a subcutaneous delivery member, a subcutaneous delivery member actuation mechanism (10, 100) being operable to move the subcutaneous delivery member between a retracted position and an extended position and a support member supporting the subcutaneous delivery member actuation mechanism (10, 100), whereby said actuation mechanism (10, 100) comprises a rotary member (102, 302) having an engagement member (104, 304) rotatable relative the support member, and an actuator (106, 306) comprising a pivot portion and an engagement portion, the actuator (106, 306) being pivotally connected to the support member via the pivot portion, wherein the actuation mechanism is actuated by rotation of the rotary member, wherein the engagement member (104, 304) and engagement portion are engageable such that rotation of the rotary member causes an actuation portion of the actuator (106, 306) to pivot between first and second positions and to thereby move the subcutaneous delivery member between the corresponding retracted and extended positions, characterized in that the delivery unit further comprises a pump engine configured to pump a fluid to the subcutaneous delivery member by means of a rotary action, the pump engine being coupled to the rotary member (102, 302).
A network to deliver an adaptive multimedia stream, comprising: an application function module adapted to interact with an application on a remote device, the remote device adapted to utilize dynamic policy and charging control, PCC, to receive an adaptive multimedia stream; a policy and charging rules function, PCRF, module adapted to couple to the application function module, the PCRF module adapted to implement policy and charging control, PCC, decisions; and a policy and charging enforcement function, PCEF, module adapted to couple to the PCRF module, the PCEF module adapted to enforce policy decisions received from the PCRF; characterized in that: the remote device adpted to to provide session information including a media presentation description, MPD, to the application function module to provide the multimedia stream to the remote device at a specified quality of service, QoS. an application function module adapted to interact with an application on a remote device, the remote device adapted to utilize dynamic policy and charging control, PCC, to receive an adaptive multimedia stream; a policy and charging rules function, PCRF, module adapted to couple to the application function module, the PCRF module adapted to implement policy and charging control, PCC, decisions; and a policy and charging enforcement function, PCEF, module adapted to couple to the PCRF module, the PCEF module adapted to enforce policy decisions received from the PCRF; characterized in that: the remote device adpted to to provide session information including a media presentation description, MPD, to the application function module to provide the multimedia stream to the remote device at a specified quality of service, QoS.
Multipack having at least four containers, which are connected to one another by adhesive points, wherein each container comprises at least one adhesive point of the first order and two or more containers comprise an adhesive point of the second order, wherein the adhesive points of the first order hold together subgroups of containers, and wherein the adhesive points of the second order are applied between the subgroups of containers, and that a carrying handle spans at least in sections over upper ends of two containers, characterised in that the adhesive points of the second order are arranged at a lower half of the container.
Antenna arrangement for transmitting energy comprising - a planar array of two or more rectangular loop antennas, each rectangular loop antenna adapted to transmit energy at low frequencies via non-radiative resonant coupling and at high frequencies via radiative coupling, said low frequencies corresponding to a wavelength substantially larger than twice the longest rectangular loop antenna dimension and said high frequencies corresponding to a wavelength substantially equal to twice the longest rectangular loop antenna dimension, said high frequencies being suitable for transmitting energy over larger distances than said low frequencies, said planar array so configured that a fixed focal area is created in front of an aperture of said planar array, said fixed focal area being in the near-field of said planar array, - a feeding network connected to said planar array and comprising phase shifting means for providing a phase difference between signals at said high frequencies to be transmitted by different rectangular loop antennas of said planar array, whereby the amount of phase difference compensates for a difference between the distance of said rectangular loop antennas to a focal point in said fixed focal area in the near-field of said planar array on the one hand and the distance of said focal point to said planar array on the other hand, - means adapted for distributing said signals applied to said feeding network. - a planar array of two or more rectangular loop antennas, each rectangular loop antenna adapted to transmit energy at low frequencies via non-radiative resonant coupling and at high frequencies via radiative coupling, said low frequencies corresponding to a wavelength substantially larger than twice the longest rectangular loop antenna dimension and said high frequencies corresponding to a wavelength substantially equal to twice the longest rectangular loop antenna dimension, said high frequencies being suitable for transmitting energy over larger distances than said low frequencies, said planar array so configured that a fixed focal area is created in front of an aperture of said planar array, said fixed focal area being in the near-field of said planar array, - a feeding network connected to said planar array and comprising phase shifting means for providing a phase difference between signals at said high frequencies to be transmitted by different rectangular loop antennas of said planar array, whereby the amount of phase difference compensates for a difference between the distance of said rectangular loop antennas to a focal point in said fixed focal area in the near-field of said planar array on the one hand and the distance of said focal point to said planar array on the other hand, - means adapted for distributing said signals applied to said feeding network.