mhurhangee/patent-ind-claim-en huggingface dataset:
A reference signal sending method, comprising: receiving , by a base station, a measurement result, sent by UE, of a downlink reference signal from a serving cell of the UE, wherein the base station is a base station to which the serving cell belongs, wherein the measurement result does not comprise a measurement result of the downlink reference signal from a neighboring cell; determining , by the base station based on the measurement result, whether a predetermined handover preparation condition is met; if the predetermined handover preparation condition is met, instructing , by the base station, the neighboring cell to send the downlink reference signal to the UE by using a time-frequency resource configured by the base station; and instructing , by the base station, the UE to receive the downlink reference signal by using the time-frequency resource configured by the base station. receiving , by a base station, a measurement result, sent by UE, of a downlink reference signal from a serving cell of the UE, wherein the base station is a base station to which the serving cell belongs, wherein the measurement result does not comprise a measurement result of the downlink reference signal from a neighboring cell; determining , by the base station based on the measurement result, whether a predetermined handover preparation condition is met; if the predetermined handover preparation condition is met, instructing , by the base station, the neighboring cell to send the downlink reference signal to the UE by using a time-frequency resource configured by the base station; and instructing , by the base station, the UE to receive the downlink reference signal by using the time-frequency resource configured by the base station.
Stabiliser equipped with central vertical frame and a seat , said central vertical frame being composed of a central column and a hollow column, said hollow column being attached to a base with at least two right and left front wheels and at least two rear castor wheels , said central vertical frame comprising a containment support at the top consisting of a first right-side support and a second left-side support (2") connected together by a cross-piece , said , seat is comprised of a saddle (3") attached to a frame the central column is attached on the bottom to a first actuator said first actuator inserted into said hollow central column , characterized in that said cross-piece is attached to the top end of the central column of the central vertical frame by a bracket, and the bottom of the seat is attached to the central vertical frame and a second actuator by means of said frame , and the stabiliser further comprises a table which is attached to the top of the cross-piece by means of sliding guides, and table said table comprises a movement control device .
Wheel for amphibious vehicles , which has a rim and a tyre contact surface for driving on a solid surface, at least one floating body being provided on the wheel , which floating body is designed to receive air and/or gas and can be brought from a neutral position into a floating position as required, characterised in that the floating body is formed from numerous profiles pivotable at a defined angle (W) to the wheel plane (E) on the circumference of the rim and/or on the circumference of a receiving means extending within the inner circumference of the rim , at least one watertight and flexible and/or elastic material being arranged on the profiles and/or connected to the profiles to form a buoyant cavity .
A method comprising, with a computing platform: obtaining an encoded routability graph representative of feasible paths in an indoor environment represented by an encoded map ; and assigning likelihoods of transition from an ingress edge in said encoded routability graph to individual egress edges through a junction connecting said ingress edge to a plurality of egress edges based, at least in part, on: (i) one or more features of said encoded map , (ii) a number of possible origination paths in said encoded routability graph connected to said junction through said ingress edge leading toward said junction , and (iii) a number of possible destination paths connected to said junction through said individual egress edges leading away from said junction ; characterised in that said possible origination paths and said possible destination paths are based, at least in part, on point-to-point connections between nodes representing points of interest in said encoded map along said encoded routability graph . obtaining an encoded routability graph representative of feasible paths in an indoor environment represented by an encoded map ; and assigning likelihoods of transition from an ingress edge in said encoded routability graph to individual egress edges through a junction connecting said ingress edge to a plurality of egress edges based, at least in part, on: (i) one or more features of said encoded map , (ii) a number of possible origination paths in said encoded routability graph connected to said junction through said ingress edge leading toward said junction , and (iii) a number of possible destination paths connected to said junction through said individual egress edges leading away from said junction ; (i) one or more features of said encoded map , (ii) a number of possible origination paths in said encoded routability graph connected to said junction through said ingress edge leading toward said junction , and (iii) a number of possible destination paths connected to said junction through said individual egress edges leading away from said junction ; characterised in that said possible origination paths and said possible destination paths are based, at least in part, on point-to-point connections between nodes representing points of interest in said encoded map along said encoded routability graph .
Measuring device for measuring the interior space, which is formed by mould walls, of a mould , preferably for a continuous casting plant, wherein the measuring device comprises: a mount , which is arranged for mounting the measuring device so that the measuring device is disposed at a defined position and in a defined location relative to the mould , and a measuring section comprising one or more contactless distance sensors (23a, 23b, 23c and 23d), preferably laser sensors, which are arranged to contactlessly measure the distance from two or more points of the mould inner walls and to provide this as measurement data, wherein the measuring device further comprises a control device or can be brought into communication with such, the control device being arranged to determine from the measurement data of the contactless distance sensors (23a, 23b, 23c and 23d) the inclination or one or more mould walls and/or the casting width of the mould and/or the centre point position of the measuring device , characterised in that the measuring section comprises at least two distance sensors (23a, 23b, 23c and 23d) vertically spaced from one another and the mount is constructed as a pivot mount so that the measuring device is self-aligning due to the effect of gravitational force. a mount , which is arranged for mounting the measuring device so that the measuring device is disposed at a defined position and in a defined location relative to the mould , and a measuring section comprising one or more contactless distance sensors (23a, 23b, 23c and 23d), preferably laser sensors, which are arranged to contactlessly measure the distance from two or more points of the mould inner walls and to provide this as measurement data, wherein the measuring device further comprises a control device or can be brought into communication with such, the control device being arranged to determine from the measurement data of the contactless distance sensors (23a, 23b, 23c and 23d) the inclination or one or more mould walls and/or the casting width of the mould and/or the centre point position of the measuring device , characterised in that the measuring section comprises at least two distance sensors (23a, 23b, 23c and 23d) vertically spaced from one another and the mount is constructed as a pivot mount so that the measuring device is self-aligning due to the effect of gravitational force.
A method comprising: determining in a multiple input multiple output user equipment, UE, an initial channel-state information for a wireless channel based on a search of a plurality of sets of precoding codebook elements stored in the UE; and determining a subsequent channel-state information based on the initial channel-state information; wherein the plurality of sets of precoding codebook elements is stored in a predetermined order in the UE and characterized in that determining the subsequent channel-state information comprises selecting the set of precoding codebook elements, including a subsequent rank information, that is immediately previous to the set of precoding codebook elements including the initial channel-state information. determining in a multiple input multiple output user equipment, UE, an initial channel-state information for a wireless channel based on a search of a plurality of sets of precoding codebook elements stored in the UE; and determining a subsequent channel-state information based on the initial channel-state information; wherein the plurality of sets of precoding codebook elements is stored in a predetermined order in the UE and characterized in that determining the subsequent channel-state information comprises selecting the set of precoding codebook elements, including a subsequent rank information, that is immediately previous to the set of precoding codebook elements including the initial channel-state information.
Computer-implemented method for planning a motion path for multiple agents , comprising the steps of: - performing (S4) a conflict-based motion planning for the multiple agents , wherein conflict-free motion paths for each of the multiple agents are determined depending on movement costs, - determining (S2) poses and velocities of one or more individual objects (I) and one or more groups (G) of objects having a distance of less than a given group distance threshold between them; - calculating (S3) the movement costs depending on interaction costs of each of the multiple agents with the one or more individual objects (I) and/or the one or more groups (G) of objects, characterized in that : the interaction costs include group costs which depend on at least one of group movement costs that measures how much an individual belonging to the group (G) moves forwards to the center of the group (G) and attraction costs indicating a measure of how an considered agent of the multiple agents is attracted to the center of the group (G) of objects, wherein the conflict-based motion planning includes a conflict-based search considering a constraint tree built with nodes defining constraints for at least one of the agents , wherein the conflict-based search is a two-level algorithm wherein a high-level search is performed in a constraint tree whose nodes include constraints on time and location for a considered agent, wherein at each node in the constraint tree, a low-level search is performed to find paths for all of the multiple agents under the constraints given by the high-level node. - performing (S4) a conflict-based motion planning for the multiple agents , wherein conflict-free motion paths for each of the multiple agents are determined depending on movement costs, - determining (S2) poses and velocities of one or more individual objects (I) and one or more groups (G) of objects having a distance of less than a given group distance threshold between them; - calculating (S3) the movement costs depending on interaction costs of each of the multiple agents with the one or more individual objects (I) and/or the one or more groups (G) of objects,
A battery pack which is mounted under a floor of a vehicle , comprising: a lower case fixed under the floor and on which a battery stack is placed; an upper case attached to the lower case ; a support member extending upwardly from a rigid body provided inside the lower case to support a back surface of the upper case , characterized in that the battery pack comprises an elastic member disposed on a surface of the upper case and sandwiched between the upper case and a lower surface of the floor , and in that the elastic member is any one of a rubber, a sponge, and a spring. a lower case fixed under the floor and on which a battery stack is placed; an upper case attached to the lower case ; a support member extending upwardly from a rigid body provided inside the lower case to support a back surface of the upper case , characterized in that the battery pack comprises an elastic member disposed on a surface of the upper case and sandwiched between the upper case and a lower surface of the floor , and in that the elastic member is any one of a rubber, a sponge, and a spring.
Method for manufacturing a mat made from recycled rubber, comprising the steps of: - mixing recycled rubber in grains or chips and at least one binder so as to obtain a granular rubber-binder mixture, - transferring said rubber-binder mixture onto a conveyor belt, which, when moving, has a direction of travel, - compressing said rubber-binder mixture on the conveyor belt at a hardening temperature of the rubber-binder mixture, and - adding liquid water to said rubber-binder mixture before the compression step, the added water causing, on contact with the binder, a hardening of the latter during compression at said hardening temperature, with the obtaining of a mat made from agglomerated recycled rubber, characterised in that the transfer step comprises a deposit of the rubber-binder mixture on the conveyor belt following a back-and-forth movement transversely to said direction of travel, and said method further comprises, after this depositing step, a step of levelling said rubber-binder mixture on the conveyor belt during travel, at a predetermined uniform thickness. - mixing recycled rubber in grains or chips and at least one binder so as to obtain a granular rubber-binder mixture, - transferring said rubber-binder mixture onto a conveyor belt, which, when moving, has a direction of travel, - compressing said rubber-binder mixture on the conveyor belt at a hardening temperature of the rubber-binder mixture, and - adding liquid water to said rubber-binder mixture before the compression step, the added water causing, on contact with the binder, a hardening of the latter during compression at said hardening temperature, with the obtaining of a mat made from agglomerated recycled rubber,
An electrochemical cell comprising (A) an anode comprising at least one anode active material, (B) a cathode comprising at least one cathode active material selected from mixed lithium transition metal oxides containing Mn and at least one second transition metal; lithium intercalating mixed oxides containing Ni, Al and at least one second transition metal; LiNiPO 4 ; LiMnPO 4 ; and LiCoPO 4 ; (C) an electrolyte composition containing (i) at least one aprotic organic solvent; (ii) at least one lithium ion containing conducting salt; (iii) a compound of formula (I) wherein R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are independently from each other selected from H, F, R 7, OR 7, and OSi(R 8 ) 3 ; R 7 is selected from C 1 -C 6 alkyl, C2-C6 alkenyl, C2-C6 alkynyl, C5-C7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more substituents selected from OSi(CH 3 ) 3 and F; and R 8 is independently at each occurrence selected from H, F, R 7 and OR 7 ; (iv) optionally one or more additives. (A) an anode comprising at least one anode active material, (B) a cathode comprising at least one cathode active material selected from mixed lithium transition metal oxides containing Mn and at least one second transition metal; lithium intercalating mixed oxides containing Ni, Al and at least one second transition metal; LiNiPO 4 ; LiMnPO 4 ; and LiCoPO 4 ; (C) an electrolyte composition containing (i) at least one aprotic organic solvent; (ii) at least one lithium ion containing conducting salt; (iii) a compound of formula (I) wherein R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are independently from each other selected from H, F, R 7, OR 7, and OSi(R 8 ) 3 ; R 7 is selected from C 1 -C 6 alkyl, C2-C6 alkenyl, C2-C6 alkynyl, C5-C7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more substituents selected from OSi(CH 3 ) 3 and F; and R 8 is independently at each occurrence selected from H, F, R 7 and OR 7 ; (iv) optionally one or more additives. (i) at least one aprotic organic solvent; (ii) at least one lithium ion containing conducting salt; (iii) a compound of formula (I) wherein R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are independently from each other selected from H, F, R 7, OR 7, and OSi(R 8 ) 3 ; R 7 is selected from C 1 -C 6 alkyl, C2-C6 alkenyl, C2-C6 alkynyl, C5-C7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more substituents selected from OSi(CH 3 ) 3 and F; and R 8 is independently at each occurrence selected from H, F, R 7 and OR 7 ; R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 are independently from each other selected from H, F, R 7, OR 7, and OSi(R 8 ) 3 ; R 7 is selected from C 1 -C 6 alkyl, C2-C6 alkenyl, C2-C6 alkynyl, C5-C7 (hetero)aryl, and C 6 -C 13 (hetero)aralkyl which may be substituted by one or more substituents selected from OSi(CH 3 ) 3 and F; and R 8 is independently at each occurrence selected from H, F, R 7 and OR 7 ; (iv) optionally one or more additives.
A method of thermal mitigation in a device having a plurality of non-real-time processing units, PUs, and a plurality of real-time PUs, comprising: connecting each of the plurality of real-time PUs and the plurality of non-real-time PUs to a first power supply; and performing thermal mitigation comprising: disconnecting successively each of the plurality of non-real-time PUs except one of the plurality of non-real-time PUs from the first power supply resulting in an active non-real-time PU; connecting a second power supply that derives power from the first power supply to the active non-real-time PU, wherein a voltage supplied by the second power supply is less than a voltage supplied by the first power supply; and obtaining a first temperature measurement of the device; and determining that the first temperature measurement exceeds a threshold, wherein connecting the second power supply is in response to determining the first temperature measurement exceeds the threshold. connecting each of the plurality of real-time PUs and the plurality of non-real-time PUs to a first power supply; and performing thermal mitigation comprising: disconnecting successively each of the plurality of non-real-time PUs except one of the plurality of non-real-time PUs from the first power supply resulting in an active non-real-time PU; connecting a second power supply that derives power from the first power supply to the active non-real-time PU, wherein a voltage supplied by the second power supply is less than a voltage supplied by the first power supply; and obtaining a first temperature measurement of the device; and determining that the first temperature measurement exceeds a threshold, wherein connecting the second power supply is in response to determining the first temperature measurement exceeds the threshold. disconnecting successively each of the plurality of non-real-time PUs except one of the plurality of non-real-time PUs from the first power supply resulting in an active non-real-time PU; connecting a second power supply that derives power from the first power supply to the active non-real-time PU, wherein a voltage supplied by the second power supply is less than a voltage supplied by the first power supply; and obtaining a first temperature measurement of the device; and determining that the first temperature measurement exceeds a threshold, wherein connecting the second power supply is in response to determining the first temperature measurement exceeds the threshold.
A method for task characterization on a material handling vehicle , comprising: monitoring data communicated between one or more on-board sensors and a vehicle controller on the material handling vehicle , wherein the material handling vehicle includes a mast and forks ; the method being characterized by the following steps: identifying a repetition or pattern in the monitored data, the repetition or pattern including: picking up an object at floor level; moving less than or equal to a first predefined distance; placing the object; and moving less than or equal to a second predefined distance; determining that the repetition or pattern in the monitored data is a vehicle task , wherein the vehicle task is classified as loading or unloading a trailer; and modifying an operational parameter of the material handling vehicle based on the determined vehicle task , wherein modifying the operational parameter comprises reducing a maximum height of the mast or the forks to below a predetermined height based on the vehicle task . picking up an object at floor level; moving less than or equal to a first predefined distance; placing the object; and moving less than or equal to a second predefined distance; determining that the repetition or pattern in the monitored data is a vehicle task , wherein the vehicle task is classified as loading or unloading a trailer; and modifying an operational parameter of the material handling vehicle based on the determined vehicle task , wherein modifying the operational parameter comprises reducing a maximum height of the mast or the forks to below a predetermined height based on the vehicle task .
A bake stable filling comprising: (a) a liquid component in an amount of 20 wt% to 50 wt% of the filling; and (b) microparticles having a particle size of less than 8 microns; wherein the liquid component includes microparticles in an amount of 1 wt% to 30 wt% of the liquid component, wherein the filling has a water activity of 0.7 to 0.82. (a) a liquid component in an amount of 20 wt% to 50 wt% of the filling; and (b) microparticles having a particle size of less than 8 microns;