mhurhangee/patent-ind-claim-en huggingface dataset:
Test arrangement for testing an automotive infotainment system of a vehicle , the test arrangement comprising: a test data generator , adapted to generate test data for testing the automotive infotainment system and to provide the generated test data to the automotive infotainment system ; an analyzing device , adapted to measure a response of the automotive infotainment system to the provided test data; and a processing device , adapted to determine a number of at least two user experience parameters based on the measured response of the automotive infotainment system , wherein the analyzing device receives signals which are generated by components of the automotive infotainment system or which are received by input devices of the automotive infotainment system , wherein the processing device compares the measured response with the related test data when determining the user experience parameters, and wherein the number of at least two user experience parameters comprise at least two parameters of audio parameters, video parameters, media parameters, camera parameters, data transmission parameters, maintenance parameters or navigation parameters of the automotive infotainment system. a test data generator , adapted to generate test data for testing the automotive infotainment system and to provide the generated test data to the automotive infotainment system ; an analyzing device , adapted to measure a response of the automotive infotainment system to the provided test data; and a processing device , adapted to determine a number of at least two user experience parameters based on the measured response of the automotive infotainment system , wherein the analyzing device receives signals which are generated by components of the automotive infotainment system or which are received by input devices of the automotive infotainment system , wherein the processing device compares the measured response with the related test data when determining the user experience parameters, and wherein the number of at least two user experience parameters comprise at least two parameters of audio parameters, video parameters, media parameters, camera parameters, data transmission parameters, maintenance parameters or navigation parameters of the automotive infotainment system.
A soil tillage implement , preferably an agricultural hoeing harrow, comprising a frame structure and a plurality of mutually spaced harrow tines which are arranged in several rows and one behind the other, wherein the harrow tines are pivotable relative to the frame structure and each harrow tine is connected to a work setting device , wherein the harrow tines are divided into n groups (Gn) with an associated n work setting device , wherein each group (Gn) comprises a work setting device and is connected to the associated working setting device , wherein the work setting device is provided and designed to change a work setting of the harrow tines of the associated group (Gn), wherein the soil tillage implement comprises a control unit which is provided and designed to control the work setting devices , wherein the work setting device is connected to the associated working setting device ,wherein the groups (Gn) can be combined and/or are combined into sections (Sk) in any desired and/or predefined manner depending on the working conditions present, wherein a division of the soil tillage implement into sections can be changed, wherein the control unit is provided and designed to combine groups (Gn) into sections (Sk), and/or wherein a display and input device is provided, which is connected to the control unit at least by signalling and which is designed and intended to perform the combination of the groups (Gn) into sections (Sk) by means of user inputs. the groups (Gn) can be combined and/or are combined into sections (Sk) in any desired and/or predefined manner depending on the working conditions present, wherein a division of the soil tillage implement into sections can be changed, wherein the control unit is provided and designed to combine groups (Gn) into sections (Sk), and/or wherein a display and input device is provided, which is connected to the control unit at least by signalling and which is designed and intended to perform the combination of the groups (Gn) into sections (Sk) by means of user inputs.
A method of transmitting data from a transmitter device to a plurality of receiver devices , each of which is connected to the transmitter device via at least one respective pair of wires , each receiver device being operable to receive signals detected as a change over time in the potential difference across the local ends of each respective pair of wires extending between the receiver device and the transmitter device , the transmitter device being operable to transmit signals onto the wires extending between the transmitter device and the plurality of receiver devices in a plurality of different modes, over a plurality of different channels, the different modes including phantom and differential modes and the different channels including a first set of phantom channels, characterised in that the method comprises selecting a second set of phantom channels from the first set, the second set being a proper subset of the first set comprising one or some of the phantom channels of the first set, the selection being made in dependence upon the cross-talk coupling between the phantom channels of the first set and the reception of signals at each of the receivers detected as a change over time in the potential difference across the local ends of the, or each, respective pair of wires extending between the respective receiver device and the transmitter device , connecting the selected phantom channels to the transmitter device , and transmitting signals from the transmitter device onto the phantom channels of the second set of phantom channels, wherein the selection of the second set of phantom channels is made to benefit specific pairs, all the pairs or to maximise a rate equilibrium.
Method for measuring a temperature of a fluid for use with a microfluidic analysis apparatus having at least one camera device , wherein the method comprises the following steps: - identifying a diffusion characteristic of a diffusion of the fluid using at least one camera image from the camera device , the diffusion characteristic being identified using a fluid-specific diffusion constant which represents space-time kinetics of said fluid in m/s 2 ; - reading at least one diffusion signal which represents the diffusion characteristic of the fluid ; and - determining the temperature using the at least one diffusion signal . - identifying a diffusion characteristic of a diffusion of the fluid using at least one camera image from the camera device , the diffusion characteristic being identified using a fluid-specific diffusion constant which represents space-time kinetics of said fluid in m/s 2 ; - reading at least one diffusion signal which represents the diffusion characteristic of the fluid ; and - determining the temperature using the at least one diffusion signal .
Wiring harness for a motor vehicle, - having at least one cable bundle comprising at least two cables , and a sheath , - wherein at least some section or some sections of the cable bundle is/are embedded in the sheath , - wherein the sheath has an indicating element on the outside, - wherein the indicating element is routed parallel to the cable bundle in order to indicate a position of the cable bundle , - wherein the indicating element extends substantially over the entire longitudinal extent of the sheath , characterized - in that the indicating element has a first protuberance , wherein the first protuberance is of bead-type configuration, - or - in that the indicating element has a depression on the outside of the sheath . - having at least one cable bundle comprising at least two cables , and a sheath , - wherein at least some section or some sections of the cable bundle is/are embedded in the sheath , - wherein the sheath has an indicating element on the outside, - wherein the indicating element is routed parallel to the cable bundle in order to indicate a position of the cable bundle , - wherein the indicating element extends substantially over the entire longitudinal extent of the sheath , characterized - in that the indicating element has a first protuberance , wherein the first protuberance is of bead-type configuration, - or - in that the indicating element has a depression on the outside of the sheath .
A method of wireless communications, comprising: identifying at least a first hybrid automatic repeat request, HARQ, transmission and a second HARQ transmission, wherein at least one of the identified HARQ transmissions is for ultra-reliable low-latency communications, URLLC; receiving an indication including information of reference signal handling for the identified HARQ transmissions, wherein the information in the indication indicates at least one of: a relationship between the first HARQ transmission and the second HARQ transmission; that the reference signal handling includes application of same precodings or same phase shifts to the identified HARQ transmissions; that the reference signal handling includes application of different precodings or different phase shifts to the identified HARQ transmissions; or that coherent channel estimation is to be applied for the identified HARQ transmissions; and performing the reference signal handling based on the information. identifying at least a first hybrid automatic repeat request, HARQ, transmission and a second HARQ transmission, wherein at least one of the identified HARQ transmissions is for ultra-reliable low-latency communications, URLLC; receiving an indication including information of reference signal handling for the identified HARQ transmissions, wherein the information in the indication indicates at least one of: a relationship between the first HARQ transmission and the second HARQ transmission; that the reference signal handling includes application of same precodings or same phase shifts to the identified HARQ transmissions; that the reference signal handling includes application of different precodings or different phase shifts to the identified HARQ transmissions; or that coherent channel estimation is to be applied for the identified HARQ transmissions; and a relationship between the first HARQ transmission and the second HARQ transmission; that the reference signal handling includes application of same precodings or same phase shifts to the identified HARQ transmissions; that the reference signal handling includes application of different precodings or different phase shifts to the identified HARQ transmissions; or that coherent channel estimation is to be applied for the identified HARQ transmissions; and performing the reference signal handling based on the information.
A pressurized aircraft fuselage, comprising a pressure bulkhead installed on a fuselage structure , wherein the pressure bulkhead forms a barrier between an internal pressurized cabin area and an outside area , wherein the edge of the pressure bulkhead is circumferentially attached to the fuselage structure by fastening means, characterized in that the fastening means comprise a pair of ring-shaped attachment frames made of a hollow profile, which are disposed at each side of the pressure bulkhead respectively, in order to form a clamping connection for the pressure bulkhead towards the fuselage structure ; and wherein each ring-shaped attachment frame is attached to the edge of the pressure bulkhead and to the fuselage structure by means of a rivet connection, comprising several adjacent lines of rivets .
Multi-joint hinge , particularly for a refrigerator, having a mounting element which can be fixed to an appliance body and a hinge part which can be fixed to a door and is held pivotably on the mounting element between a closed position and a maximum open position via a joint mechanism having a plurality of joint levers , wherein the hinge part is biased in the closing direction in a contraction range via a spring and at least one linear damper with a damper housing and a piston rod displaceable relative to the damper housing is provided, which brake a closing movement of the hinge part before the closing position is reached, wherein in the folded closed position, the levers (4, 5, 6 and 7) of the joint mechanism are nested inside each other and the multi-joint hinge is box-shaped and the opening angle can be determined from two parallel surfaces of the mounting element and the hinge part , characterized in that the at least one linear damper is arranged with the damper housing in a rotationally fixed manner via a holding element within a lever and the holding element is fixed to a lever of the joint mechanism and the piston rod can be pushed into the damper housing via an actuating element , the actuating element being arranged on a further lever of the joint mechanism.
Method for reinforcing a reinforced concrete beam-column node (N) comprising the steps of: a) identifying a beam-column node (N) to be reinforced and detecting dimensional parameters characteristic of said node (N); b) arranging two steel reinforcement plates for an intervention surface (S) of the node (N), said reinforcement plates being selected from a set of modular reinforcement plates made of steel according to the characteristic dimension parameters detected, and connecting said two reinforcement plates to each other so as to make a reinforcement assembly shaped to be arranged at the intervention surface (S), wherein each reinforcement plate has a main portion mainly developing along a longitudinal direction (Y) and at least two parallel arms branching off from the main portion in the same direction mainly developing along respective transverse directions (X) perpendicular to the longitudinal direction (Y), each arm having a plurality of connecting holes that are used for said connection between the reinforcement plates ; c) arranging the reinforcement assembly on the intervention surface (S) and drilling a plurality of holes in the node (N) through selected openings , not overlapping in use the reinforcement bars of the node (N), of a plurality of openings made in the main portion of the respective reinforcement plates , each hole extending perpendicularly within the node (N) with respect to the intervention surface (S); d) fitting a plurality of dry connectors within said plurality of holes through said selected openings . a) identifying a beam-column node (N) to be reinforced and detecting dimensional parameters characteristic of said node (N); b) arranging two steel reinforcement plates for an intervention surface (S) of the node (N), said reinforcement plates being selected from a set of modular reinforcement plates made of steel according to the characteristic dimension parameters detected, and connecting said two reinforcement plates to each other so as to make a reinforcement assembly shaped to be arranged at the intervention surface (S), wherein each reinforcement plate has a main portion mainly developing along a longitudinal direction (Y) and at least two parallel arms branching off from the main portion in the same direction mainly developing along respective transverse directions (X) perpendicular to the longitudinal direction (Y), each arm having a plurality of connecting holes that are used for said connection between the reinforcement plates ; c) arranging the reinforcement assembly on the intervention surface (S) and drilling a plurality of holes in the node (N) through selected openings , not overlapping in use the reinforcement bars of the node (N), of a plurality of openings made in the main portion of the respective reinforcement plates , each hole extending perpendicularly within the node (N) with respect to the intervention surface (S); d) fitting a plurality of dry connectors within said plurality of holes through said selected openings .
A wireless communication system , the wireless communication system comprising a source access network node , a target access network node and a control device , both the source access network node and the target access network node comprising a transceiver and a processor , the transceiver of the source access network node and the target access network node being configured to receive a handover instruction from the control device , the handover instruction comprising a handover time instance T for a user device to be handed over from the source access network node to the target access network node , the processor of the source access network node being configured to, serve the user device by maintaining a data connection with the user device until the handover time instance T, and share information about an Automatic Repeat Request/Hybrid Automatic Repeat Request, ARQ/HARQ, process with the target access network node for the user device ; the processor of the target access network node being configured to, serve the user device by maintaining a data connection with the user device after the handover time instance T, and share information about an ARQ/HARQ process with the source access network node for the user device . the transceiver of the source access network node and the target access network node being configured to receive a handover instruction from the control device , the handover instruction comprising a handover time instance T for a user device to be handed over from the source access network node to the target access network node , the processor of the source receive a handover instruction from the control device , the handover instruction comprising a handover time instance T for a user device to be handed over from the source access network node to the target access network node , the processor of the source access network node being configured to, serve the user device by maintaining a data connection with the user device until the handover time instance T, and share information about an Automatic Repeat Request/Hybrid Automatic Repeat Request, ARQ/HARQ, process with the target access network node for the user device ; the processor of the target access network node being configured to, serve the user device by maintaining a data connection with the user device after the handover time instance T, and share information about an ARQ/HARQ process with the source access network node for the user device . serve the user device by maintaining a data connection with the user device until the handover time instance T, and share information about an Automatic Repeat Request/Hybrid Automatic Repeat Request, ARQ/HARQ, process with the target access network node for the user device ; the processor of the target access network node being configured to, serve the user device by maintaining a data connection with the user device after the handover time instance T, and share information about an ARQ/HARQ process with the source access network node for the user device .
A combine harvester comprising: - a frame ; - two axial-flow crop processing rotors mounted to the frame and arranged side-by-side and each having a longitudinal rotation axis (21",22"); - an inner support structure located between, and extending parallel to, the two rotors , the inner support structure being moveably mounted to the frame by a first linkage ; - two outer support structures located outboard of, and extending parallel to, the two rotors; - wherein the inner support structure and two outer support structures are configured to carry first and second pluralities of concave grate segments at a radial distance from the respective rotors ; and, - a concave adjustment system comprising a first actuator coupled to the first linkage and configured to raise and lower the inner support structure , characterised in that , the outer support structures are moveably mounted to the frame by respective second and third linkages , wherein the second linkage and the third linkage each comprise a rockshaft mounted to the frame aligned substantially parallel to the rotation axis, and first and second cranks keyed to the rockshaft and coupled to the associated outer support structure by respective hangers , wherein a second actuator is connected between the frame and a third crank (48") which is keyed to one of said rockshafts , and wherein the second actuator is configured to raise and lower at least one of said two outer support structures . - a frame ; - two axial-flow crop processing rotors mounted to the frame and arranged side-by-side and each having a longitudinal rotation axis (21",22"); - an inner support structure located between, and extending parallel to, the two rotors , the inner support structure being moveably mounted to the frame by a first linkage ; - two outer support structures located outboard of, and extending parallel to, the two rotors; - wherein the inner support structure and two outer support structures are configured to carry first and second pluralities of concave grate segments at a radial distance from the respective rotors ; and, - a concave adjustment system comprising a first actuator coupled to the first linkage and configured to raise and lower the inner support structure , characterised in that , the outer support structures are moveably mounted to the frame by respective second and third linkages , wherein the second linkage and the third linkage each comprise a rockshaft mounted to the frame aligned substantially parallel to the rotation axis, and first and second cranks keyed to the rockshaft and coupled to the associated outer support structure by respective hangers , wherein a second actuator is connected between the frame and a third crank (48") which is keyed to one of said rockshafts , and wherein the second actuator is configured to raise and lower at least one of said two outer support structures .
A battery comprising: a. jellyroll electrode assembly comprising a lithium anode, a microporous separator having a thickness between 16 and 22 μm, and a cathode comprising a current collector and a coating, wherein the coating has a dry mix density of at least 4.4 g/cm 3 , wherein the void volume in the cathode is between 28 and 40%, wherein the anode has a thickness between 150 and 200 μm and the cathode has a thickness between 180 and 220 μm, wherein the cathode mixture comprises greater than 94 wt.% and less than 99 wt.% active material comprising pyrite, 0.1 wt.% to 3.0 wt.% conductor, 0.1 wt.% to 3.0 wt.% binder and 0 to 1.0 wt.% processing aids, and wherein the cathode loading after coating and densification is more than 24 mg/cm 2 ; b. an organic electrolyte comprising 1,3-dioxolane and 1,2-dimethoxyethane; and c. a cylindrical container having a yield strength, a height and a diameter, said height exceeding the diameter of the container. a. jellyroll electrode assembly comprising a lithium anode, a microporous separator having a thickness between 16 and 22 μm, and a cathode comprising a current collector and a coating, wherein the coating has a dry mix density of at least 4.4 g/cm 3 , wherein the void volume in the cathode is between 28 and 40%, wherein the anode has a thickness between 150 and 200 μm and the cathode has a thickness between 180 and 220 μm, wherein the cathode mixture comprises greater than 94 wt.% and less than 99 wt.% active material comprising pyrite, 0.1 wt.% to 3.0 wt.% conductor, 0.1 wt.% to 3.0 wt.% binder and 0 to 1.0 wt.% processing aids, and wherein the cathode loading after coating and densification is more than 24 mg/cm 2 ; wherein the coating has a dry mix density of at least 4.4 g/cm 3 , wherein the void volume in the cathode is between 28 and 40%, wherein the anode has a thickness between 150 and 200 μm and the cathode has a thickness between 180 and 220 μm, wherein the cathode mixture comprises greater than 94 wt.% and less than 99 wt.% active material comprising pyrite, 0.1 wt.% to 3.0 wt.% conductor, 0.1 wt.% to 3.0 wt.% binder and 0 to 1.0 wt.% processing aids, and wherein the cathode loading after coating and densification is more than 24 mg/cm 2 ; b. an organic electrolyte comprising 1,3-dioxolane and 1,2-dimethoxyethane; and c. a cylindrical container having a yield strength, a height and a diameter, said height exceeding the diameter of the container.