mhurhangee/patent-ind-claim-en huggingface dataset:
A method for quantifying correctness of a model f (·) applied to control a vehicle arranged for Level 4 automation and/or for advanced driver assistance, the method comprising; obtaining (S1) input parameters comprising vehicle states x i i = 1 n and control inputs u i i = 1 n − 1 associated with the vehicle , and obtaining prediction errors ε i i = 1 n − 1 by evaluating the model f (·) over a range of the obtained input parameters, determining (S2) a threshold ζ such that the prediction errors in excess of the threshold ζ, { ε i : ε i ≰ ζ}, follow a Generalized Pareto Distribution, GDP, parameterizing (S3) a GDP based on the prediction errors in excess of the threshold ζ { ε i : ε i ≰ ζ}, and quantifying (S4) correctness of the model f (·) based on the parameterized GDP. obtaining (S1) input parameters comprising vehicle states x i i = 1 n and control inputs u i i = 1 n − 1 associated with the vehicle , and obtaining prediction errors ε i i = 1 n − 1 by evaluating the model f (·) over a range of the obtained input parameters, determining (S2) a threshold ζ such that the prediction errors in excess of the threshold ζ, { ε i : ε i ≰ ζ}, follow a Generalized Pareto Distribution, GDP, parameterizing (S3) a GDP based on the prediction errors in excess of the threshold ζ { ε i : ε i ≰ ζ}, and quantifying (S4) correctness of the model f (·) based on the parameterized GDP.
A transition metal compound formed by the chelation of a tridentate dianionic heterocyclic amido ligand to a group 4 or 5 transition metal, where the tridentate ligand coordinates to the metal forming a five-membered ring and an eight-membered ring.
A glass comprising: at least 50 mol% SiO 2 ; from 9 mol% to 22 mol% Al 2 O 3 ; at least 10 mol% R 2 O, wherein R 2 O comprises Na 2 O; from 9 mol% to 20 mol% Na 2 O; from 0 mol% to 5 mol% K 2 O; wherein Al 2 O 3 (mol%) < R 2 O(mol%); 3 mol% to 4.5 mol% B 2 O 3 ; at least 0.1 mol% of at least one of MgO and ZnO, wherein 0 mol% ≤ MgO ≤ 6 mol% and 0 mol% ≤ ZnO ≤ 6 mol%; and optionally, at least one of CaO, BaO, and SrO, wherein 0 mol% ≤ CaO + SrO + BaO ≤ 2 mol%, wherein B 2 O 3 (mol%) - (R 2 O(mol%) - Al 2 O 3 (mol%)) ≥ 3 mol%, and wherein the glass is ion exchangeable. at least 50 mol% SiO 2 ; from 9 mol% to 22 mol% Al 2 O 3 ; at least 10 mol% R 2 O, wherein R 2 O comprises Na 2 O; from 9 mol% to 20 mol% Na 2 O; from 0 mol% to 5 mol% K 2 O; wherein Al 2 O 3 (mol%) < R 2 O(mol%); 3 mol% to 4.5 mol% B 2 O 3 ; at least 0.1 mol% of at least one of MgO and ZnO, wherein 0 mol% ≤ MgO ≤ 6 mol% and 0 mol% ≤ ZnO ≤ 6 mol%; and optionally, at least one of CaO, BaO, and SrO, wherein 0 mol% ≤ CaO + SrO + BaO ≤ 2 mol%,
Soil-tilling blade to be arranged on a tool holder, in particular cultivator blade having a guide plate adjoining the blade tip , wherein the blade tip and/or the guide plate comprise/comprises at least one hole , which is intended to accommodate a fastening element for fastening on the tool holder , wherein the guide plate has a substantially concave surface in the direction of travel , wherein an abutment element for butting against the tool holder is located on the upper end portion in the direction of the rear side of the guide plate , wherein the tool holder has two opposite side surfaces , characterized in that the guide plate is of twisted configuration, in that the abutment element is arranged on the rear side of the rear region of the upper end of the guide plate , in that the abutment element fills the intermediate space between the rear side of the guide plate and that side surface of the tool holder that is adjacent to the abutment element , in that the abutment element merges obliquely from its upper side in relation to the rear side of the guide plate with a continuous transition into the rear side of the guide plate .
A surgical implant , comprising a porous structure with interconnected pores for ingrowth of bone into the porous structure, wherein the porous structure comprises an arrangement of fibres which are attached to one another, wherein the fibres are arranged in layers , the layers being stacked, wherein the porous structure comprises a surface , wherein the surface comprises different regions having different porosities, the different porosities being determined by the arrangement of fibres, wherein the porous structure is attached to a dense part , characterised in that the surface is located opposite the dense part.
An aerodynamic lift structure comprising unbalanced composite skin that couples twist and bending, wherein the skin includes at least one laminated plate of unbalanced plies of reinforcing fibers embedded in a matrix, characterized in that : a magnitude of the coupling is controlled by a number of the reinforcing fibers per ply or a number of plies per plate.
Conveyor device comprising: a conveyance element extending in a longitudinal direction between two spaced apart landing portions and configured to move for conveying people and/or goods between the two landing portions ; at least one balustrade supporting a handrail , the at least one balustrade being located laterally at one side of the conveyance element and extending along the longitudinal direction of the conveyance element ; and at least one sensor , which is configured for detecting the presence of a person in a detection zone which extends from the at least one sensor in the form of a cone centered around a main detection direction (D), the detection zone further defined by at least one detection angle (α, β) being defined as an opening angle of the detection zone within a predefined plane extending from the at least one balustrade , and at least one detection range (R); wherein the at least one sensor is located at or next to the at least one balustrade ; wherein the main detection direction (D) extends from the at least one sensor in a direction away from the balustrade on a side opposite to the conveyance element ; and wherein the detection range (R) is set so that the detection zone ends in a distance (d) below the handrail forming a non-detection zone below an upper edge of the balustrade . a conveyance element extending in a longitudinal direction between two spaced apart landing portions and configured to move for conveying people and/or goods between the two landing portions ; at least one balustrade supporting a handrail , the at least one balustrade being located laterally at one side of the conveyance element and extending along the longitudinal direction of the conveyance element ; and at least one sensor , which is configured for detecting the presence of a person in a detection zone which extends from the at least one sensor in the form of a cone centered around a main detection direction (D), the detection zone further defined by at least one detection angle (α, β) being defined as an opening angle of the detection zone within a predefined plane extending from the at least one balustrade , and at least one detection range (R); wherein the at least one sensor is located at or next to the at least one balustrade ; wherein the main detection direction (D) extends from the at least one sensor in a direction away from the balustrade on a side opposite to the conveyance element ; and wherein the detection range (R) is set so that the detection zone ends in a distance (d) below the handrail forming a non-detection zone below an upper edge of the balustrade .
A bone plate , comprising: a first through hole extending through the plate along a first longitudinal axis from a proximal surface of the plate to a bone-facing distal surface thereof which, when the plate is placed on a target portion of bone in a desired orientation, faces the bone, a wall of the first through hole including at least three wall sections provided with thread or thread-like structures for receiving a screw head of a bone screw , characterised by the at least three wall sections being straight or convex.
Battery pack comprising a plurality of battery cells , and an enclosure , wherein the plurality of battery cells are arranged on top of a horizontal component , preferably in form of a plate and that the horizontal component is spaced apart from the enclosure by at least one spacer element , said at least one spacer element providing at least one hot stream channel , characterized in that the horizontal component comprises at least one predetermined breaking point formed such to provide a hot stream flow to enter said at least one hot stream channel upon breaking said at least one breaking point , preferably each with one hot stream channel , wherein each predetermined breaking point is provided such that upon breaking of an emergency opening of a battery cell , hot stream flows to said breaking point , wherein said at least one breaking point is provided in form of a local thickness and/or density reduction and/or a fragile element , preferably a membrane, within the horizontal component . a plurality of battery cells , and an enclosure , wherein the plurality of battery cells are arranged on top of a horizontal component , preferably in form of a plate and that the horizontal component is spaced apart from the enclosure by at least one spacer element , said at least one spacer element providing at least one hot stream channel , characterized in that the horizontal component comprises at least one predetermined breaking point formed such to provide a hot stream flow to enter said at least one hot stream channel upon breaking said at least one breaking point , preferably each with one hot stream channel , wherein each predetermined breaking point is provided such that upon breaking of an emergency opening of a battery cell , hot stream flows to said breaking point , wherein said at least one breaking point is provided in form of a local thickness and/or density reduction and/or a fragile element , preferably a membrane, within the horizontal component .
A method for wireless communication at a user equipment, UE, operating in a non-connected state, comprising: receiving , in the non-connected state, group common downlink control information in one or more group common downlink control channels including a first group common downlink control channel, characterised in that the one or more group common downlink control channels scheduling a plurality of downlink data channels, each downlink data channel indicating at least a respective configuration of physical resources and transmission parameters usable for grant-free uplink transmission; determining , in the non-connected state, scheduling information and a group radio network temporary identifier for a first downlink data channel of the plurality of downlink data channels based at least in part on the group common downlink control information received in the first group common downlink control channel; receiving , in the non-connected state in the first downlink data channel according to the identified scheduling information and the group radio network temporary identifier, a first configuration of physical resources and transmission parameters to be used for a grant-free uplink transmission of one or more of a preamble, control information, or data; and transmitting , in the non-connected state, the grant-free uplink transmission to a base station based on the first configuration of physical resources and transmission parameters. receiving , in the non-connected state, group common downlink control information in one or more group common downlink control channels including a first group common downlink control channel, characterised in that the one or more group common downlink control channels scheduling a plurality of downlink data channels, each downlink data channel indicating at least a respective configuration of physical resources and transmission parameters usable for grant-free uplink transmission; determining , in the non-connected state, scheduling information and a group radio network temporary identifier for a first downlink data channel of the plurality of downlink data channels based at least in part on the group common downlink control information received in the first group common downlink control channel; receiving , in the non-connected state in the first downlink data channel according to the identified scheduling information and the group radio network temporary identifier, a first configuration of physical resources and transmission parameters to be used for a grant-free uplink transmission of one or more of a preamble, control information, or data; and transmitting , in the non-connected state, the grant-free uplink transmission to a base station based on the first configuration of physical resources and transmission parameters.
A method of tracking a plurality of objects in a sequence of images, comprising: receiving (S02) an image from a sequence of images , calculating (S04), based on the received image , a detection probability map which, for each state of a predefined set of states, specifies a probability that any of the plurality of objects is detected in that state in the received image , wherein each of the plurality of objects has n possible states, and wherein the predefined set of states corresponds to the n possible states of one of the plurality of objects, such that the number of states in the predefined set of states is the same regardless of the number of objects, updating (S06), based on the calculated detection probability map , an object identity map and an accumulated probability map recursively from a previous object identity map and a previous accumulated probability map corresponding to a previously received image of the sequence of images , wherein, for each state of the predefined set of states, the object identity map identifies one object among the plurality of objects which is most likely to be in that state in the received image , and, the accumulated probability map specifies a probability of the one object, which is identified in the object identity map for that state, having that state in the received image , and tracking (S08) each object in the received image based on the updated object identity map and the accumulated probability map . receiving (S02) an image from a sequence of images , calculating (S04), based on the received image , a detection probability map which, for each state of a predefined set of states, specifies a probability that any of the plurality of objects is detected in that state in the received image , wherein each of the plurality of objects has n possible states, and wherein the predefined set of states corresponds to the n possible states of one of the plurality of objects, such that the number of states in the predefined set of states is the same regardless of the number of objects, updating (S06), based on the calculated detection probability map , an object identity map and an accumulated probability map recursively from a previous object identity map and a previous accumulated probability map corresponding to a previously received image of the sequence of images , wherein, for each state of the predefined set of states, the object identity map identifies one object among the plurality of objects which is most likely to be in that state in the received image , and, the accumulated probability map specifies a probability of the one object, which is identified in the object identity map for that state, having that state in the received image , and tracking (S08) each object in the received image based on the updated object identity map and the accumulated probability map .
A method for operating a climate control system of an animal containment house , the method comprising: receiving climate information from a plurality of climate control input devices (21A-C) at at least one plugin module (29A-C); communicating the climate information from the plugin module to a main control unit and a standby control unit ; and either determining operating instructions for a plurality of climate output devices (23A-C) and air inlets (25A-C) based on the climate information with the main control unit or, if the main control unit is not operational, the standby control unit; or if detecting that the main control unit and the standby control unit are not operational; then switching the at least one plugin module to an autonomous mode after detecting that the main control unit and the standby control unit are not operational such that operating instructions for the plurality of climate output devices and air inlets based on the climate information are determined by the at least one plugin module. receiving climate information from a plurality of climate control input devices (21A-C) at at least one plugin module (29A-C); communicating the climate information from the plugin module to a main control unit and a standby control unit ; and either determining operating instructions for a plurality of climate output devices (23A-C) and air inlets (25A-C) based on the climate information with the main control unit or, if the main control unit is not operational, the standby control unit; or if detecting that the main control unit and the standby control unit are not operational; then switching the at least one plugin module to an autonomous mode after detecting that the main control unit and the standby control unit are not operational such that operating instructions for the plurality of climate output devices and air inlets based on the climate information are determined by the at least one plugin module.
An engine having an exhaust gas treatment apparatus attached thereto, wherein an exhaust gas treatment apparatus is supported by an engine body and the engine body and the exhaust gas treatment apparatus communicate with each other through an exhaust pipe , a casing of the exhaust gas treatment apparatus configured to comprise a plurality of casing units separable from each other; connection flanges are disposed in respective end portions of the casing units ; the casing units are coupled together by a connection of the connection flanges ; the exhaust gas treatment apparatus is supported by the engine body through the connection flanges ; a diesel particulate filter is accommodated in the exhaust gas treatment apparatus , the casing of the exhaust gas treatment apparatus comprises an accommodation casing unit for the diesel particulate filter , the exhaust inlet-side casing unit and the exhaust outlet-side casing unit ; the exhaust inlet-side casing unit and the exhaust outlet-side casing unit are detachably coupled to both ends of the accommodation casing unit for the diesel particulate filter ; a ring-shaped spacer is inserted between the connection flanges and of the accommodation casing unit for the diesel particulate filter and the exhaust inlet-side casing unit , a DPF inlet-side space is formed within the ring-shaped spacer , a sensor installation hole is formed in the ring-shaped spacer , and an exhaust sensor can be inserted from the sensor installation hole toward the DPF inlet-side space , a plurality of locked units is arranged in the connection flanges where the accommodation casing unit for the diesel particulate filter and the exhaust inlet-side casing unit overlap with each other and spaced apart from each other at equal angles in their circumferential direction, a plurality of locked units is spaced apart from each other at equal angles and arranged in the ring-shaped spacer in the circumferential direction, and a posture of the ring-shaped spacer is moved in the circumferential direction in the unit of the spaced angle, the locked units of the ring-shaped spacer are matched with the locked units of the connection flanges , and the locked units of the connection flanges and the locked units of the ring-shaped spacer are fastened using the flange connection fastening members , so that the posture of the ring-shaped spacer can be changed in the circumferential direction and thus a position and posture of the sensor installation hole can be changed.
An onboard battery mounting and dismounting system of an electric vehicle for a battery assembly with a battery pack, the mounting and dismounting system comprising: an actuatable assembly and an actuator for moving the actuatable assembly, wherein the actuatable assembly is a four-bar linkage assembly comprising a ground link , an upper grounded link , a lower grounded link and a floating link arranged in a loop and connected to one another by four revolute joints; an engaging component on the actuatable assembly, wherein the engaging component is the floating link of the four-bar linkage assembly; wherein the engaging component includes a first hook and a second hook , wherein the first hook and the second hook are configured to engage the battery assembly; wherein the first hook has a first vertical position on the engaging component; wherein the second hook has a second vertical position on the engaging component; wherein the first vertical position is substantially different than the second vertical position; and wherein the first hook and the second hook extend forwards from the engaging component such that when disposed on the vehicle the first hook and the second hook comprise the forwardmost portions of the actuatable assembly. an actuatable assembly and an actuator for moving the actuatable assembly, wherein the actuatable assembly is a four-bar linkage assembly comprising a ground link , an upper grounded link , a lower grounded link and a floating link arranged in a loop and connected to one another by four revolute joints; an engaging component on the actuatable assembly, wherein the engaging component is the floating link of the four-bar linkage assembly; wherein the engaging component includes a first hook and a second hook , wherein the first hook and the second hook are configured to engage the battery assembly; wherein the first hook has a first vertical position on the engaging component; wherein the second hook has a second vertical position on the engaging component; wherein the first vertical position is substantially different than the second vertical position; and wherein the first hook and the second hook extend forwards from the engaging component such that when disposed on the vehicle the first hook and the second hook comprise the forwardmost portions of the actuatable assembly.
A device for operating a built-in kitchen appliance with 1.1. a central piece , 1.2. an operating element mounted rotatably on the central piece , 1.3. at least one position sensor , which is designed for sensing a rotational position of the operating element , 1.4. at least one touch and/or pressure sensitive sensor, 1.5. wherein the central piece is formed by a mounting box with an installation receiving space, for flexible arrangement in a front of a unit of furniture or a kitchen worktop , 1.6. wherein the central piece has a front covering , which forms an operating zone which is coupled to the at least one touch-sensitive and/or pressure-sensitive sensor, the operating zone being designed as a touch-sensitive screen, and 1.7. wherein the operating element is designed in the form of a ring and the operating zone is circumferentially surrounded by the operating element . 1.1. a central piece , 1.2. an operating element mounted rotatably on the central piece , 1.3. at least one position sensor , which is designed for sensing a rotational position of the operating element , 1.4. at least one touch and/or pressure sensitive sensor, 1.5. wherein the central piece is formed by a mounting box with an installation receiving space, for flexible arrangement in a front of a unit of furniture or a kitchen worktop , 1.6. wherein the central piece has a front covering , which forms an operating zone which is coupled to the at least one touch-sensitive and/or pressure-sensitive sensor, the operating zone being designed as a touch-sensitive screen, and 1.7. wherein the operating element is designed in the form of a ring and the operating zone is circumferentially surrounded by the operating element .