mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method for dual connectivity, comprising: sending , by a first node (MN, SN), first indication information to a second node (SN, MN), wherein the first indication information is used for indicating a first actual limit value, wherein the first actual limit value is an actual maximum quantity of reporting criteria for measurement on a second cell configurable by the second node (SN, MN), and the first node (MN, SN) and the second node (SN, MN) are respectively nodes of the first cell and the second cell under a dual connectivity network in which a terminal device is located, and requesting, by the first node (MN, SN), the second node (SN, MN) to send second indication information, wherein the first indication information is carried in an inter-node Radio Resource Control, RRC, message between the first node (MN, SN) and the second node (SN, MN), and wherein the second indication information is used for indicating a second quantity, wherein the second quantity is a quantity of reporting criteria for measurement on the second cell configured by the second node (SN, MN). sending , by a first node (MN, SN), first indication information to a second node (SN, MN), wherein the first indication information is used for indicating a first actual limit value, wherein the first actual limit value is an actual maximum quantity of reporting criteria for measurement on a second cell configurable by the second node (SN, MN), and the first node (MN, SN) and the second node (SN, MN) are respectively nodes of the first cell and the second cell under a dual connectivity network in which a terminal device is located, and requesting, by the first node (MN, SN), the second node (SN, MN) to send second indication information, wherein the first indication information is carried in an inter-node Radio Resource Control, RRC, message between the first node (MN, SN) and the second node (SN, MN), and wherein the second indication information is used for indicating a second quantity, wherein the second quantity is a quantity of reporting criteria for measurement on the second cell configured by the second node (SN, MN).
Suspension device for at least one motor vehicle rear wheel , which comprises: - an axle having a crossmember that is elastically flexible when twisted and that comprises at least one longitudinal arm having: - a longitudinal body ; - a front end intended to be rotatably mounted about a transverse axis (A) on a motor vehicle shell; - a head forming a rear end section of the arm ; - a spindle carrier which can receive a wheel rotating about a first transverse axis (B) by means of a spindle, the spindle carrier being pivotably mounted about a second transverse axis (C) directly on the head of the arm with a determined play about a stable angular position toward which it is elastically returned; characterized in that the body of the arm is produced by forming sheet metal, while the head is formed by a solid element that is attached and fixed to a free rear end of the body . - an axle having a crossmember that is elastically flexible when twisted and that comprises at least one longitudinal arm having: - a longitudinal body ; - a front end intended to be rotatably mounted about a transverse axis (A) on a motor vehicle shell; - a head forming a rear end section of the arm ; - a spindle carrier which can receive a wheel rotating about a first transverse axis (B) by means of a spindle, the spindle carrier being pivotably mounted about a second transverse axis (C) directly on the head of the arm with a determined play about a stable angular position toward which it is elastically returned;
Heat exchange module comprising at least a first heat exchanger and a ventilation device intended to generate an air flow towards the motor-vehicle heat exchanger , the first heat exchanger and the ventilation device being positioned in relation to one another in such a way that an air flow (F) set in motion by the ventilation device is fed into the heat exchanger , the ventilation device comprising at least one first and one second cross-flow fan for moving an air flow (F) to the heat exchanger and a guide means comprising a plurality of air guiding elements shaped to guide the air set in motion by the cross-flow fans towards the heat exchanger , the air guiding elements being shaped to delimit at least one air passage (E) towards the heat exchanger and being mounted with the ability to move between a position in which said at least one air passage (E) is open and a position in which said at least one air passage is at least partially closed (E), each air guiding element comprising an air guiding surface and a swivel pin of the guiding element , the swivel pins extending parallel to one another, projections of each swivel pin in a plane orthogonal to the swivel pins being referred to as projections , characterized in that the at least one first and one second cross-flow fan are disposed laterally one on each side of the guiding elements , the cross-flow fans extending parallel to the guiding elements , and in that a total cross section of the guiding elements has a median direction (M) parallel to the guiding elements so as to delimit a first half section (3-1) between the first fan and the median direction (M) and a second half section (3-2) between the second fan and the median direction (M), the guiding elements being shaped so that a distance (D1) between the heat exchanger and each projection is less than a distance (D2) between the heat exchanger and the adjacent projection (8") situated in the same half section (3-1, 3-2) and closer to the related fan .
A MIMO OTA performance test system, comprising: a base station simulator , configured to send multiple streams of downlink test signals to a channel emulator by using multiple downlink ports; the channel emulator, configured to: perform channel emulation processing on the multiple streams of received downlink test signals according to a complex number pattern of each of multiple receive antennas of a terminal device , a downlink radiation channel inverse matrix, and a specified downlink channel fading model, and further configured to send the multiple streams of processed downlink test signals to the terminal device in an anechoic chamber by using multiple downlink antennas in the anechoic chamber; and the terminal device, configured to: receive, by using the multiple receive antennas, the multiple streams of processed downlink test signals sent by the channel emulator, and feed back an acknowledgement message to the base station simulator according to each stream of received processed downlink test signal, wherein the acknowledgement message that is fed back according to the stream of processed downlink test signal is used to notify the base station simulator whether the terminal device correctly demodulates the processed downlink test signal, wherein the base station simulator is further configured to determine a downlink throughput of the terminal device according to a quantity of streams of downlink test signals that are sent and a quantity of pieces of acknowledgement information, among received acknowledgement messages, indicating that the terminal device performs correct demodulation. a base station simulator , configured to send multiple streams of downlink test signals to a channel emulator by using multiple downlink ports; the channel emulator, configured to: perform channel emulation processing on the multiple streams of received downlink test signals according to a complex number pattern of each of multiple receive antennas of a terminal device , a downlink radiation channel inverse matrix, and a specified downlink channel fading model, and further configured to send the multiple streams of processed downlink test signals to the terminal device in an anechoic chamber by using multiple downlink antennas in the anechoic chamber; and the terminal device, configured to: receive, by using the multiple receive antennas, the multiple streams of processed downlink test signals sent by the channel emulator, and feed back an acknowledgement message to the base station simulator according to each stream of received processed downlink test signal, wherein the acknowledgement message that is fed back according to the stream of processed downlink test signal is used to notify the base station simulator whether the terminal device correctly demodulates the processed downlink test signal, wherein the base station simulator is further configured to determine a downlink throughput of the terminal device according to a quantity of streams of downlink test signals that are sent and a quantity of pieces of acknowledgement information, among received acknowledgement messages, indicating that the terminal device performs correct demodulation.
A roller carriage for the reception of a sliding door , including a roller module for the displaceable affixing at a roller running path , and a basic body for the attachment to the sliding door , wherein at least two mounting devices are provided for realizing one respective mounting function of the roller carriage , wherein each one of said mounting devices is a self-contained system, wherein each mounting device includes at least one mounting means with a manipulation interface for applying a mounting force for performing a mounting movement of the at least one mounting means , wherein furthermore the manipulation interfaces of the mounting means of the at least two mounting devices are disposed on a first side of the roller carriage , and a bearing device of the roller module for the displaceable affixing at the roller running path is disposed on a second side of the roller carriage , which side is oriented opposite the first side , wherein all mounting means have a movement axis (BA) for the mounting movement, wherein said movement axes (BA) are oriented parallel or essentially parallel to each other, characterized in that all manipulation interfaces include at least one a form closure portion , which, with an interface portion of a uniform manipulation tool , forms at least a section-wise form closure, and wherein at least the following mounting devices are provided: - height adjusting device for a height adjustment of the basic body in relation to the roller module in a direction of gravity (SKR), - securing device for a clamped affixing between the basic body and the roller module following completed adjustment of the height of the sliding door . wherein all mounting means have a movement axis (BA) for the mounting movement, wherein said movement axes (BA) are oriented parallel or essentially parallel to each other, characterized in that all manipulation interfaces include at least one a form closure portion , which, with an interface portion of a uniform manipulation tool , forms at least a section-wise form closure, and wherein at least the following mounting devices are provided: - height adjusting device for a height adjustment of the basic body in relation to the roller module in a direction of gravity (SKR), - securing device for a clamped affixing between the basic body and the roller module following completed adjustment of the height of the sliding door . - height adjusting device for a height adjustment of the basic body in relation to the roller module in a direction of gravity (SKR), - securing device for a clamped affixing between the basic body and the roller module following completed adjustment of the height of the sliding door .
A turf wheel, comprising: a wheel rim having an inner and outer surface; a plurality of pegs extending radially outward from the outer surface of the wheel rim, wherein the plurality of pegs each comprise a stem and a lug , and wherein the plurality of pegs maintain the wheel rim above an area of turf and provide a ground contacting tread ; a non-continuous tread comprising the ground contacting tread and tread voids; and a hub, characterised in that the lug comprises a T-shaped lug face and in that the ground contacting tread comprises said T-shaped lug faces . a wheel rim having an inner and outer surface; a plurality of pegs extending radially outward from the outer surface of the wheel rim, wherein the plurality of pegs each comprise a stem and a lug , and wherein the plurality of pegs maintain the wheel rim above an area of turf and provide a ground contacting tread ; a non-continuous tread comprising the ground contacting tread and tread voids; and a hub, characterised in that the lug comprises a T-shaped lug face and in that the ground contacting tread comprises said T-shaped lug faces .
Drive device comprising a speed modulation gearbox having a planetary gear mechanism and a casing , a main drive machine which is connected to an input shaft of the speed modulation gearbox, two auxiliary drives (3.1, 3.2), which are each connected to the planetary gear mechanism via a drive connection (9.1, 10.1, 9.2, 10.2), and an output shaft of the speed modulation gearbox which can be connected to a working machine , wherein the planetary gear mechanism comprises a ring gear (6.1), a sun gear (6.2), a planet carrier and several planet gears (6.3), characterized in that for each auxiliary drive, an additional drive connection with a constant transmission ratio exists between the auxiliary drives (3.1, 3.2) and the input shaft or between the auxiliary drives (3.1, 3.2) and a driven shaft of the planetary gear mechanism, wherein said additional drive connections are configured such that they can each be engaged or disengaged by means of a respective switching clutch (16.1, 16.2), wherein the drive connections (9.1, 10.1, 9.2, 10.2) from the auxiliary drives (3.1, 3.2) to the speed modulation gearbox remain engaged in any case.
A device comprising: a plurality of epitaxial chips including a first epitaxial chip and a second epitaxial chip , the first epitaxial chip includes a first light source configured to emit first light and a first detector , and the second epitaxial chip includes a second light source configured to emit second light and a second detector , wherein: the first light and the second light have different optical properties; and a first waveguide is configured to direct first light from the first light source to the second detector and the second detector is configured to detect the first light. a plurality of epitaxial chips including a first epitaxial chip and a second epitaxial chip , the first epitaxial chip includes a first light source configured to emit first light and a first detector , and the second epitaxial chip includes a second light source configured to emit second light and a second detector , wherein: the first light and the second light have different optical properties; and a first waveguide is configured to direct first light from the first light source to the second detector and the second detector is configured to detect the first light. the first light and the second light have different optical properties; and a first waveguide is configured to direct first light from the first light source to the second detector and the second detector is configured to detect the first light.
A utility vehicle steering system, comprising a steering gear for transmitting a manual torque, which is applied to a steering wheel , to a steering column lever , which has an electric motor for providing auxiliary torque for steering assistance, wherein the steering assistance is provided exclusively electrically over the entire operating range of the steering system, wherein the steering gear furthermore has: - an input shaft and an output shaft , the axes of rotation (A, B) of which are skewed with respect to each other, - a first gear device , which couples the input shaft to the output shaft , and - a second gear device , to which the electric motor is connected on the input side and which has at least one gearing-down gear stage in the form of a coaxial gear with a high transmission ratio, characterized in that the second gear device is coupled with the output shaft on the output side and the gearing-down gear stage of which, in the form of the coaxial gear with high transmission ratio, is arranged coaxially with respect to the output shaft . - an input shaft and an output shaft , the axes of rotation (A, B) of which are skewed with respect to each other, - a first gear device , which couples the input shaft to the output shaft , and - a second gear device , to which the electric motor is connected on the input side and which has at least one gearing-down gear stage in the form of a coaxial gear with a high transmission ratio,
Method for temporary coating of cavities , which are at least partially running through a semiconductor substrate and provided for a permanent coating and/or equipping, with a temporarily applied coating material on the side walls and on the bottom of the cavities before processing steps for processing at least one surface of the semiconductor substrate , wherein the coating material is formed from a high-adhesive part, which adheres to the surface of the cavities , and a for contaminants low-adhesive part, which points into the interior of the cavities and comes into contact with the contaminants, wherein the coating material is applied in the case of the coating in addition at intermediate surfaces of the semiconductor substrate running between the cavities , wherein the coating material is removed at the intermediate surfaces after the coating without removing the coating material applied in the cavities , wherein the coating material is removed at the intermediate surfaces at least partially by centrifuging,
A gaseous pharmaceutical composition for use in improving and/or stabilizing circulatory dynamics after onset of hemorrhagic shock, characterized in that said pharmaceutical composition comprises hydrogen gas.
A method for transmitting a positioning reference signal, being applied to a NarrowBand-Cellular Internet of Things, NB-IOT, system, and the method comprising: obtaining (S202), by a base station, specified information related to transmission of a Positioning Reference Signal, PRS, wherein the specified information comprises: a period, an offset, a duration, and subframe configuration information; and determining (S204), by the base station, a subframe for the PRS based on the specified information, and transmitting, by the base station, the PRS by using the subframe, wherein for anyone of target Orthogonal Frequency Division Multiplexing, OFDM, symbols, allowed for transmitting the PRS, in the subframe, the PRS is mapped to two resource elements in the target OFDM symbol; wherein the subframe is configured as an invalid subframe for a standalone operation or a guard band operation, wherein the target OFDM symbols allowed for transmitting the PRS are all OFDM symbols in the invalid subframe, and the invalid subframe is a subframe that does not support transmission of a Narrowband Physical Downlink Control Channel, NPDCCH, and a Narrowband Physical Downlink Shared Channel, NPDSCH, and that is not used for transmission of a Narrowband Primary Synchronization Signal or a Narrowband Secondary Synchronization Signal, NPSS/NSSS, a Narrowband Physical Broadcast Channel, NPBCH, and an NPDSCH carrying a Narrowband System Information Block 1, NSIB1. obtaining (S202), by a base station, specified information related to transmission of a Positioning Reference Signal, PRS, wherein the specified information comprises: a period, an offset, a duration, and subframe configuration information; and determining (S204), by the base station, a subframe for the PRS based on the specified information, and transmitting, by the base station, the PRS by using the subframe, wherein for anyone of target Orthogonal Frequency Division Multiplexing, OFDM, symbols, allowed for transmitting the PRS, in the subframe, the PRS is mapped to two resource elements in the target OFDM symbol; wherein the subframe is configured as an invalid subframe for a standalone operation or a guard band operation, wherein the target OFDM symbols allowed for transmitting the PRS are all OFDM symbols in the invalid subframe, and the invalid subframe is a subframe that does not support transmission of a Narrowband Physical Downlink Control Channel, NPDCCH, and a Narrowband Physical Downlink Shared Channel, NPDSCH, and that is not used for transmission of a Narrowband Primary Synchronization Signal or a Narrowband Secondary Synchronization Signal, NPSS/NSSS, a Narrowband Physical Broadcast Channel, NPBCH, and an NPDSCH carrying a Narrowband System Information Block 1, NSIB1.
Inflatable suspended ceiling for a passenger cabin of an aircraft , comprising: a flat fabric cover sheet configured to roof over at least a longitudinal section of an interior space along an extending direction of the passenger cabin underneath a structural ceiling of the passenger cabin; a tensioning structure attached to the cover sheet to carry the cover sheet from above and having a flexible envelope enclosing at least one inflatable chamber configured to tension the cover sheet when inflated with air; and mounting members attached to the tensioning structure and configured to mount the tensioning structure to counter-mounting members on the structural ceiling in a hanged configuration. a flat fabric cover sheet configured to roof over at least a longitudinal section of an interior space along an extending direction of the passenger cabin underneath a structural ceiling of the passenger cabin; a tensioning structure attached to the cover sheet to carry the cover sheet from above and having a flexible envelope enclosing at least one inflatable chamber configured to tension the cover sheet when inflated with air; and mounting members attached to the tensioning structure and configured to mount the tensioning structure to counter-mounting members on the structural ceiling in a hanged configuration.
Screw press for separating liquids from a suspension, in particular a sludge or fibrous material suspension, having a conical or cylindrical and perforated casing supported in a housing , and at least one cylindrical or conical screw shaft rotating in the casing and having at least one screw helix , wherein the suspension is pressed from an inlet opening to an outlet opening through an annular gap formed between the casing and the screw shaft , wherein at least one screw helix has a plurality of apertures running axially, the axial apertures are arranged predominantly in the half of the screw shaft that points towards the inlet opening , characterized in that the cross-sectional area of the apertures decreases in the conveying direction .