mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising: receiving, by a terminal device, at least one piece of downlink data on a first time domain resource; and sending, by the terminal device, receiving status information on a second time domain resource, wherein the receiving status information is used to indicate a receiving status of the at least one piece of downlink data, a time interval between the second time domain resource and the first time domain resource is less than 4 milliseconds, a transmission time interval of an uplink channel carrying the receiving status information is greater than a transmission time interval of a downlink channel carrying any piece of downlink data in the at least one piece of downlink data, and the transmission time interval of the downlink channel carrying the any piece of downlink data is less than 1 millisecond; wherein a length of the transmission time interval of the downlink channel carrying the any piece of downlink data in the at least one piece of downlink data is 2 symbols or 1 symbol, and the transmission time interval of the uplink channel carrying the receiving status information is 0.5 ms; and the first time domain resource is a timeslot n-2 and the second time domain resource is a timeslot n, wherein the timeslot n-2 is a second timeslot counted backward from the timeslot n, wherein each of the timeslots consists of 6 or 7 symbols, and wherein each of the timeslots has a length of 0.5 ms. receiving, by a terminal device, at least one piece of downlink data on a first time domain resource; and sending, by the terminal device, receiving status information on a second time domain resource, wherein the receiving status information is used to indicate a receiving status of the at least one piece of downlink data, a time interval between the second time domain resource and the first time domain resource is less than 4 milliseconds, a transmission time interval of an uplink channel carrying the receiving status information is greater than a transmission time interval of a downlink channel carrying any piece of downlink data in the at least one piece of downlink data, and the transmission time interval of the downlink channel carrying the any piece of downlink data is less than 1 millisecond; wherein a length of the transmission time interval of the downlink channel carrying the any piece of downlink data in the at least one piece of downlink data is 2 symbols or 1 symbol, and the transmission time interval of the uplink channel carrying the receiving status information is 0.5 ms; and the first time domain resource is a timeslot n-2 and the second time domain resource is a timeslot n, wherein the timeslot n-2 is a second timeslot counted backward from the timeslot n, wherein each of the timeslots consists of 6 or 7 symbols, and wherein each of the timeslots has a length of 0.5 ms.
Method for testing the wireless reception of a means of communication, said means at least being able to receive a signal wirelessly, the method comprising a step, implemented by the means of communication, essentially consisting in providing feedback on what said means receives wirelessly, the implementation of the step consisting in providing feedback depending on wireless reception by the means of communication, namely reception or not of a signal or even of data that a received signal contains, furthermore comprising the following step: the analysis of a signal received by the means of communication comprises detecting its type, namely whether it is a test signal, so that, depending on the type of signal received, either data that allow the means of communication to modulate the feedback are extracted therefrom, or the received signal is treated as a signal normally conveyed in operation, i.e. a measuring signal, a signal containing instructions, etc. the implementation of the step consisting in providing feedback depending on the type of signal received, which is identified during its analysis. the analysis of a signal received by the means of communication comprises detecting its type, namely whether it is a test signal, so that, depending on the type of signal received, either data that allow the means of communication to modulate the feedback are extracted therefrom, or the received signal is treated as a signal normally conveyed in operation, i.e. a measuring signal, a signal containing instructions, etc. the implementation of the step consisting in providing feedback depending on the type of signal received, which is identified during its analysis.
A medical connector assembly, comprising: a multi-patient connector having a first fluid passageway and a frame adapted to receive one or more single-patient connectors and to support the multi-patient connector; and one or more single-patient connectors, each of the single-patient connectors comprising: a housing having a proximal end opposite a distal end with a central fluid passage along a longitudinal axis extending therebetween; a connector having a central channel, the connector removably coupled to the housing and movable relative to the housing between the proximal end and the distal end; characterised in that each of the single-patient connectors further comprises a flange extending around the distal end of the housing; a cap removably engaged to the flange; and a seal disposed around a perimeter of the flange; and wherein each of the one or more single-patient connectors is removably engageable with the multi-patient connector to establish a fluid path therethrough by (a) sliding the housing of the single-patient connector relative to the multi-patient connector into a groove of the frame in a direction perpendicular to the longitudinal axis to remove the cap from the flange so that the seal slidably engages the frame and thereby aligns the central channel of the connector with the first fluid passageway of the multi-patient connector, and (b) moving the connector relative to the housing in a direction from the proximal end toward the distal end of the housing; wherein the frame includes a shroud configured to envelop the housing of the single-patient connector; and wherein as the single-patient connector is slid within the shroud the cap is removed by the shroud without exposing the distal end of the housing of the single-patient connector. a multi-patient connector having a first fluid passageway and a frame adapted to receive one or more single-patient connectors and to support the multi-patient connector; and one or more single-patient connectors, each of the single-patient connectors comprising: a housing having a proximal end opposite a distal end with a central fluid passage along a longitudinal axis extending therebetween; a connector having a central channel, the connector removably coupled to the housing and movable relative to the housing between the proximal end and the distal end; a housing having a proximal end opposite a distal end with a central fluid passage along a longitudinal axis extending therebetween; a connector having a central channel, the connector removably coupled to the housing and movable relative to the housing between the proximal end and the distal end; a flange extending around the distal end of the housing; a cap removably engaged to the flange; and a seal disposed around a perimeter of the flange; wherein the frame includes a shroud configured to envelop the housing of the single-patient connector; and wherein as the single-patient connector is slid within the shroud the cap is removed by the shroud without exposing the distal end of the housing of the single-patient connector.
A MEMS device for determining at least one property of a fluid, the device comprising: a substrate; a first base (16,16A) and a second base on the substrate; a tube structure comprising at least one pair of geometrically parallel tube portions (14A, 14B) that substantially lie in a plane and are suspended by the first and second bases (16, 16A, 16B) over a surface of the substrate to individually bridge the surface between the first and second bases (16,16A,16B), the tube structure comprising a distal portion relative to the first base (16,16A) that is anchored to the second base on the substrate the tube structure comprising at least one continuous internal passage (20, 20A-B) defined at least in part within the parallel tube portions (14A,14B) and an inlet and outlet of the internal passage (20,20A-B) fluidically connected to the first base (16,16A), the tube structure being configured for vibrational movement in the plane of the tube structure; at least one drive element (26,48) in proximity to the tube structure and operable to induce the vibrational movement of the tube structure in the plane of the tube structure and to induce resonant vibrational movements in the tube portions (14A,14B); and at least one sensing element (28A-C) in proximity to the tube structure and adapted to sense deflections of each of the tube portions (14A, 14B) when the tube structure is vibrated with the at least one drive element (26, 48). a substrate; a first base (16,16A) and a second base on the substrate; a tube structure comprising at least one pair of geometrically parallel tube portions (14A, 14B) that substantially lie in a plane and are suspended by the first and second bases (16, 16A, 16B) over a surface of the substrate to individually bridge the surface between the first and second bases (16,16A,16B), the tube structure comprising a distal portion relative to the first base (16,16A) that is anchored to the second base on the substrate the tube structure comprising at least one continuous internal passage (20, 20A-B) defined at least in part within the parallel tube portions (14A,14B) and an inlet and outlet of the internal passage (20,20A-B) fluidically connected to the first base (16,16A), the tube structure being configured for vibrational movement in the plane of the tube structure; at least one drive element (26,48) in proximity to the tube structure and operable to induce the vibrational movement of the tube structure in the plane of the tube structure and to induce resonant vibrational movements in the tube portions (14A,14B); and at least one sensing element (28A-C) in proximity to the tube structure and adapted to sense deflections of each of the tube portions (14A, 14B) when the tube structure is vibrated with the at least one drive element (26, 48).
A differential, comprising: a first planetary carrier; a first gear ring; a first planetary gear disposed on the first planetary carrier and meshed with the first gear ring; a second planetary carrier; a second gear ring; and a second planetary gear disposed on the second planetary carrier and meshed with the second gear ring as well as the first planetary gear, wherein the first gear ring and the second gear ring are configured as two power output ends of the differential, the first planetary carrier and the second planetary carrier are configured as power input ends of the differential, and a revolution radius of the first planetary gear is different from a revolution radius of the second planetary gear, characterized in that an end surface, facing the second gear ring, of the first gear ring and an end surface, facing the first gear ring, of the second gear ring are located in a same plane or in that one gear ring having a smaller radius of the first gear ring and the second gear ring is at least partially embedded into the other gear ring thereof having a larger radius; and one planetary gear having the smaller revolution radius of the first planetary gear and the second planetary gear is meshed with the gear ring having the smaller radius, and the other planetary gear thereof having the larger revolution radius is meshed with the gear ring having the larger radius. a first planetary carrier; a first gear ring; a first planetary gear disposed on the first planetary carrier and meshed with the first gear ring; a second planetary carrier; a second gear ring; and a second planetary gear disposed on the second planetary carrier and meshed with the second gear ring as well as the first planetary gear, wherein the first gear ring and the second gear ring are configured as two power output ends of the differential, the first planetary carrier and the second planetary carrier are configured as power input ends of the differential, and a revolution radius of the first planetary gear is different from a revolution radius of the second planetary gear, characterized in that an end surface, facing the second gear ring, of the first gear ring and an end surface, facing the first gear ring, of the second gear ring are located in a same plane or in that one gear ring having a smaller radius of the first gear ring and the second gear ring is at least partially embedded into the other gear ring thereof having a larger radius; and one planetary gear having the smaller revolution radius of the first planetary gear and the second planetary gear is meshed with the gear ring having the smaller radius, and the other planetary gear thereof having the larger revolution radius is meshed with the gear ring having the larger radius.
A method of calibrating a three-dimensional measurement system having a plurality of cameras (118, 120, 122, 124) and at least one projector, the method comprising: performing a full calibration for each camera/projector pair, the full calibration generating at least two sets of correction matrices; and subsequently performing an updated calibration for each camera/projector pair, wherein the updated calibration changes less than all of the sets of correction matrices; and wherein performing a full calibration includes performing a camera calibration where each of the cameras acquires images of a well-characterized calibration target at a number of different, known elevations; wherein the images acquired by the cameras are analyzed to establish a geometrical transformation between camera pixel space and physical space; wherein performing a full calibration includes performing a projector calibration where a pattern is projected onto a target and each camera acquires images of the projected pattern as the target is positioned at a plurality of different heights; wherein the images acquired during the projector calibration are analyzed to establish a geometrical transformation between camera pixel space and source-pattern space. performing a full calibration for each camera/projector pair, the full calibration generating at least two sets of correction matrices; and subsequently performing an updated calibration for each camera/projector pair, wherein the updated calibration changes less than all of the sets of correction matrices; and wherein performing a full calibration includes performing a camera calibration where each of the cameras acquires images of a well-characterized calibration target at a number of different, known elevations; wherein the images acquired by the cameras are analyzed to establish a geometrical transformation between camera pixel space and physical space; wherein performing a full calibration includes performing a projector calibration where a pattern is projected onto a target and each camera acquires images of the projected pattern as the target is positioned at a plurality of different heights; wherein the images acquired during the projector calibration are analyzed to establish a geometrical transformation between camera pixel space and source-pattern space.
A method performed by a wireless device for performing an uplink control channel transmission in a serving cell in a wireless communications network when the wireless device is configured with a set of serving cells (115, 116, 117, 118) based on Radio Resource Control, RRC, and Medium Access Control Elements, MAC CE, signalling, comprising said serving cell, in the wireless communications network, the method comprising determining a number of serving cells of the set of serving cells (115, 116, 117, 118) being the number of serving cells that the wireless device has been scheduled on based on one or more of a received Downlink assignment from the network node, a semi-persistent scheduling configuration, and/or a dynamic scheduling signalling from the network node; selecting an uplink control channel format from a set of uplink control channel formats for uplink control channel transmissions based on the determined number of serving cells; and performing the uplink control channel transmission in the serving cell using the selected uplink control channel format. determining a number of serving cells of the set of serving cells (115, 116, 117, 118) being the number of serving cells that the wireless device has been scheduled on based on one or more of a received Downlink assignment from the network node, a semi-persistent scheduling configuration, and/or a dynamic scheduling signalling from the network node; selecting an uplink control channel format from a set of uplink control channel formats for uplink control channel transmissions based on the determined number of serving cells; and performing the uplink control channel transmission in the serving cell using the selected uplink control channel format.
Device for shock-proof door or hatch arrangement on naval ships, wherein in a frame a leaf pivotably via hinges can be received in the closing position and the leaf has, corresponding with the frame, locking elements which engage in each other and are adjustable by way of a handle and with the insertion of seals, for fixing the leaf in the frame for a locking position, characterised in that on two opposite longitudinal sides the frame comprises continuous locking bars (6, 10) as locking elements which are receivable in corresponding grooves (7, 13) of a leaf frame, wherein the side of the leaf pivotably connected to the frame has a fixed locking bar for engaging in the groove of the leaf frame in a closing movement of the leaf and on the opposite side an adjustable locking bar is guided in the frame which via actuating elements (11, 12) is insertable in a groove of the leaf frame in the locking position of the leaf.
A dish washer comprising: a washing bath defining a washing space; and a rack device disposed in the washing bath to receive a dish, wherein the rack device comprises: a receiving frame defining a receiving space; a plurality of support parts extending upward from a lower portion of the receiving frame, the plurality of support parts being rotatably disposed with respect to rotation shafts used as rotation centers, wherein the plurality of support parts comprises a plurality of extension parts supporting the dish and spaced with distances different from each other along the rotation shafts wherein a first support part having first support extension parts (121a, 121b) is disposed with one distance and a second support part having second support extension parts (122a, 122b) is disposed with another distance; a plurality of rotational central portions (131, 132) providing the rotation center for the plurality of support parts; and an accumulation part (141, 142) accumulating the plurality of rotational central portions at the same time, characterised in that the first support extension parts (121a, 121b) are disposed between the second support extension parts (122a, 122b) to partition the another distance, wherein the another distance is greater than the one distance. a washing bath defining a washing space; and a rack device disposed in the washing bath to receive a dish, a receiving frame defining a receiving space; a plurality of support parts extending upward from a lower portion of the receiving frame, the plurality of support parts being rotatably disposed with respect to rotation shafts used as rotation centers, wherein the plurality of support parts comprises a plurality of extension parts supporting the dish and spaced with distances different from each other along the rotation shafts wherein a first support part having first support extension parts (121a, 121b) is disposed with one distance and a second support part having second support extension parts (122a, 122b) is disposed with another distance; a plurality of rotational central portions (131, 132) providing the rotation center for the plurality of support parts; and an accumulation part (141, 142) accumulating the plurality of rotational central portions at the same time,
Diversion system for eels for circumventing a hydraulic structure, having a collecting pipe arranged in the upstream waters which is arranged in the region of the bed of the watercourse flowing in the flow direction, comprises at least one opening for receiving the eels and opens into a bypass pipe, characterised in that the collecting pipe is of zigzag configuration and in that at least one deflecting apron is arranged underneath the collecting pipe.
Method for creating a pulse sequence for controlling a magnetic resonance tomography system for generating magnetic resonance image data of an examination object for a multi-contrast acquisition, in which, in order to acquire magnetic resonance raw data, different transverse magnetisations are simultaneously excited in a plurality of partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10) for imaging and are used for imaging, wherein the partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10) are slices and at least one of the simultaneously excited slices experiences a different preparation to one of the other simultaneously excited slices, wherein the pulse sequence comprises a sequence of pulse iterations (PI1, PI2) which are configured to prepare, excite and read out partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse iterations (PI1, PI2) are arranged in the pulse sequence in such a way that a readout occurs when the pulse sequence is applied between a preparation of two spatially directly adjacent partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse sequence comprises a first pulse iteration and a following second pulse iteration, characterised in that the first pulse iteration comprises a first preparation pulse module for preparation of a first partial volume, and a first readout module after the first preparation pulse module, and the second pulse iteration comprises a second preparation pulse module for preparation of a second partial volume, and a second readout module after the second preparation pulse module, wherein the first pulse iteration between the first preparation pulse module and the first readout module comprises at least a third preparation pulse module for preparing a third partial volume. wherein the pulse sequence comprises a sequence of pulse iterations (PI1, PI2) which are configured to prepare, excite and read out partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse iterations (PI1, PI2) are arranged in the pulse sequence in such a way that a readout occurs when the pulse sequence is applied between a preparation of two spatially directly adjacent partial volumes (S1, S2, S3, S4, S5, S6, S7, S8, S9, S10), wherein the pulse sequence comprises a first pulse iteration and a following second pulse iteration, characterised in that the first pulse iteration comprises a first preparation pulse module for preparation of a first partial volume, and a first readout module after the first preparation pulse module, and the second pulse iteration comprises a second preparation pulse module for preparation of a second partial volume, and a second readout module after the second preparation pulse module, wherein the first pulse iteration between the first preparation pulse module and the first readout module comprises at least a third preparation pulse module for preparing a third partial volume.