mhurhangee/patent-ind-claim-en huggingface dataset:
An information processing device configured to control illumination of respective lighting devices which are provided in a plurality of respective vehicles , the information processing device comprising: a storage unit configured to store area information for designating an area in which respective lighting devices are to be turned on; characterised in that said storage unit is further configured to store an illuminating time period information for designating a time period in which the lighting devices are to be turned on; and said information processing device further comprising a first processor configured to acquire respective current positions of each of the plurality of respective vehicles , to extract at least one vehicle from among the plurality of respective vehicles having a respective current position in the area, and to instruct the at least one extracted vehicle to turn on, in the time period, the respective lighting device provided in the at least one extracted vehicle. a storage unit configured to store area information for designating an area in which respective lighting devices are to be turned on; characterised in that said storage unit is further configured to store an illuminating time period information for designating a time period in which the lighting devices are to be turned on; and said information processing device further comprising a first processor configured to acquire respective current positions of each of the plurality of respective vehicles , to extract at least one vehicle from among the plurality of respective vehicles having a respective current position in the area, and to instruct the at least one extracted vehicle to turn on, in the time period, the respective lighting device provided in the at least one extracted vehicle.
An electric vehicle-axial-flow-liquid-pump designed as an internal rotor pump, comprising: - a pump housing which defines an axial inlet opening and an axial outlet opening for letting in and discharging the liquid, - an electric motor which is provided in said pump housing and includes: - a motor stator with at least one external stator coil , and - a separation can which is provided radially inside said stator coils , and - a rotor body configured as an axial-flow impeller which is rotatably arranged inside said can , wherein said rotor body has at least one blade which delivers the liquid from the inlet opening to the outlet opening along the axis of rotation of said rotor body , said rotor body is of permanently magnetic design and includes plastic-bonded permanent-magnet particles and/or ferrite particles, the rotor body and the separation can together define a slide bearing, and the rotor body is integrally formed. - a pump housing which defines an axial inlet opening and an axial outlet opening for letting in and discharging the liquid, - an electric motor which is provided in said pump housing and includes: - a motor stator with at least one external stator coil , and - a separation can which is provided radially inside said stator coils , and - a rotor body configured as an axial-flow impeller which is rotatably arranged inside said can , wherein said rotor body has at least one blade which delivers the liquid from the inlet opening to the outlet opening along the axis of rotation of said rotor body , said rotor body is of permanently magnetic design and includes plastic-bonded permanent-magnet particles and/or ferrite particles, the rotor body and the separation can together define a slide bearing, and the rotor body is integrally formed. said rotor body has at least one blade which delivers the liquid from the inlet opening to the outlet opening along the axis of rotation of said rotor body , said rotor body is of permanently magnetic design and includes plastic-bonded permanent-magnet particles and/or ferrite particles, the rotor body and the separation can together define a slide bearing, and the rotor body is integrally formed.
An insulating film, being configured to wrap a battery assembly, wherein the insulating film comprises a bottom coverage area , N side coverage areas (221-224) and N pairs of bonding areas (231-238), N is an integer greater than 2; the bottom coverage area having N sides (211-214), and the N side coverage areas (221-224) being respectively connected to the bottom coverage area at the N sides (211-214), and can bend toward the bottom coverage area along the N sides (211-214) respectively; each pair of the N pairs of bonding areas (231-238) being located between two adjacent side coverage areas of the N side coverage areas (221-224), and being connected to the two adjacent side coverage areas respectively; each pair of bonding areas is configured to make the bottom coverage area and the N sides coverage areas (221-224) form a space wrapping the battery assembly by bonding surfaces on the same side of each pair of bonding areas when the N sides coverage areas (221-224) bend toward the bottom coverage area ; wherein a width of a first bonding area in each pair of bonding areas is greater than a width of a second bonding area, and after bonding, each pair of bonding areas can bend toward the side coverage area adjacent to the second bonding area, wherein the part that is not bonded with the second bonding area in the first bonding area is configured to bond to the side coverage area adjacent to the second bonding area. the bottom coverage area having N sides (211-214), and the N side coverage areas (221-224) being respectively connected to the bottom coverage area at the N sides (211-214), and can bend toward the bottom coverage area along the N sides (211-214) respectively; each pair of the N pairs of bonding areas (231-238) being located between two adjacent side coverage areas of the N side coverage areas (221-224), and being connected to the two adjacent side coverage areas respectively; each pair of bonding areas is configured to make the bottom coverage area and the N sides coverage areas (221-224) form a space wrapping the battery assembly by bonding surfaces on the same side of each pair of bonding areas when the N sides coverage areas (221-224) bend toward the bottom coverage area ; wherein a width of a first bonding area in each pair of bonding areas is greater than a width of a second bonding area, and after bonding, each pair of bonding areas can bend toward the side coverage area adjacent to the second bonding area, wherein the part that is not bonded with the second bonding area in the first bonding area is configured to bond to the side coverage area adjacent to the second bonding area.
A system, comprising: an agitation system located within a containment room , comprising: a container configured to store a coating material; a first agitator configured to agitate the coating material; and a sensor configured to sense conditions within the container, wherein the sensor is coupled to a wall of the container such that the sensor is positioned fully within an inner volume of the container, and wherein the sensor is configured to determine an operating condition of the first agitator; an agitation control system located outside of the containment room and coupled to the agitation system, comprising: a controller configured to change an intensity of the first agitator in response to an input from the sensor; and a sprayer configured to spray the coating material. an agitation system located within a containment room , comprising: a container configured to store a coating material; a first agitator configured to agitate the coating material; and a sensor configured to sense conditions within the container, wherein the sensor is coupled to a wall of the container such that the sensor is positioned fully within an inner volume of the container, and wherein the sensor is configured to determine an operating condition of the first agitator; a container configured to store a coating material; a first agitator configured to agitate the coating material; and a sensor configured to sense conditions within the container, wherein the sensor is coupled to a wall of the container such that the sensor is positioned fully within an inner volume of the container, and wherein the sensor is configured to determine an operating condition of the first agitator; an agitation control system located outside of the containment room and coupled to the agitation system, comprising: a controller configured to change an intensity of the first agitator in response to an input from the sensor; and a controller configured to change an intensity of the first agitator in response to an input from the sensor; and a sprayer configured to spray the coating material.
A synthetic growing media for plant cultivation comprising a one-piece plastic body, characterized in that the one-piece plastic body comprises a plurality of legs emanating from a common center and pointing in different directions, at least one of the plurality of legs comprising a proximal end which connects to the common center and a distal end which includes a bulbous tip , the bulbous tip having a major dimension greater than a width of the at least one of the plurality of legs , wherein: the one-piece plastic body is X-shaped and the plurality of legs are spaced approximately 90 degrees from each other in a first plane; and an opposing pair of the plurality of legs are spaced less than 180 degrees from each other in a second plane that is orthogonal to the first plane. the one-piece plastic body is X-shaped and the plurality of legs are spaced approximately 90 degrees from each other in a first plane; and an opposing pair of the plurality of legs are spaced less than 180 degrees from each other in a second plane that is orthogonal to the first plane.
A communication method, the communication method comprising: receiving , by a control function entity, first requests respectively transmitted by N first network function, NF, entities, each first request comprising a first valid time, wherein the first valid time is a time period in which a first NF entity provides a service, or is time information that indicates a time range in which a first NF entity provides a service, and N being an integer greater than 0; receiving , by the control function entity, a second request transmitted by a second NF entity, the second request being used for determining a third NF entity from the N first NF entities; determining, by the control function entity, the third NF entity from the N first NF entities according to the second request as received; and transmitting , by the control function entity, a first response to the second NF entity, the first response comprising a first valid time in which the third NF entity provides a service, for the second NF entity to perform service communication with the third NF entity within the first valid time in which the third NF entity provides the service. receiving , by a control function entity, first requests respectively transmitted by N first network function, NF, entities, each first request comprising a first valid time, wherein the first valid time is a time period in which a first NF entity provides a service, or is time information that indicates a time range in which a first NF entity provides a service, and N being an integer greater than 0; receiving , by the control function entity, a second request transmitted by a second NF entity, the second request being used for determining a third NF entity from the N first NF entities; determining, by the control function entity, the third NF entity from the N first NF entities according to the second request as received; and transmitting , by the control function entity, a first response to the second NF entity, the first response comprising a first valid time in which the third NF entity provides a service, for the second NF entity to perform service communication with the third NF entity within the first valid time in which the third NF entity provides the service.
A method for an automated valet parking comprising: transmitting, by a parking infrastructure , a target position and a guide route to a first vehicle of a plurality of vehicles; performing, by the first vehicle (A), autonomous driving toward the target position along the guide route; and performing, by the first vehicle (A), autonomous parking at the target position, wherein the parking infrastructure is configured to transmit the guide route to the first vehicle (A) through a light-emitting device installed in a parking lot, characterized in that the transmitting the target position and the guide route comprises: allocating, by the parking infrastructure , different time frames to the plurality of vehicles; and controlling illumination of the light-emitting device based on a time division scheme which provides respective guide routes to the plurality of vehicles at the different time frames allocated to the plurality of vehicles, wherein the first vehicle (A) of the plurality of vehicles is configured to check a time frame allocated to the first vehicle (A) among the different time frames, and detect the illumination of the light-emitting device only during the time frame allocated to the first vehicle (A). transmitting, by a parking infrastructure , a target position and a guide route to a first vehicle of a plurality of vehicles; performing, by the first vehicle (A), autonomous driving toward the target position along the guide route; and performing, by the first vehicle (A), autonomous parking at the target position, wherein the parking infrastructure is configured to transmit the guide route to the first vehicle (A) through a light-emitting device installed in a parking lot, characterized in that the transmitting the target position and the guide route comprises: allocating, by the parking infrastructure , different time frames to the plurality of vehicles; and controlling illumination of the light-emitting device based on a time division scheme which provides respective guide routes to the plurality of vehicles at the different time frames allocated to the plurality of vehicles, wherein the first vehicle (A) of the plurality of vehicles is configured to check a time frame allocated to the first vehicle (A) among the different time frames, and detect the illumination of the light-emitting device only during the time frame allocated to the first vehicle (A). allocating, by the parking infrastructure , different time frames to the plurality of vehicles; and controlling illumination of the light-emitting device based on a time division scheme which provides respective guide routes to the plurality of vehicles at the different time frames allocated to the plurality of vehicles, wherein the first vehicle (A) of the plurality of vehicles is configured to check a time frame allocated to the first vehicle (A) among the different time frames, and detect the illumination of the light-emitting device only during the time frame allocated to the first vehicle (A).
A refrigerant leakage notifying device comprising: a refrigerant sensor configured to detect a refrigerant and output a detection signal (DS) according to a detection result; a determination unit configured to receive the detection signal outputted from the refrigerant sensor and determine leakage of the refrigerant in accordance with the detection signal received; characterized by a notification unit configured to notify leakage of the refrigerant with at least one of sound and light in a case where the determination unit determines that the refrigerant leaks; and an output unit (44e, 48a3, 244e) provided separately from the refrigerant sensor and configured to output a test signal (TS) to the determination unit; wherein the test signal is a signal that the determination unit determines that the refrigerant leaks in a case where the determination unit receives the signal. a refrigerant sensor configured to detect a refrigerant and output a detection signal (DS) according to a detection result; a determination unit configured to receive the detection signal outputted from the refrigerant sensor and determine leakage of the refrigerant in accordance with the detection signal received; characterized by a notification unit configured to notify leakage of the refrigerant with at least one of sound and light in a case where the determination unit determines that the refrigerant leaks; and an output unit (44e, 48a3, 244e) provided separately from the refrigerant sensor and configured to output a test signal (TS) to the determination unit; wherein the test signal is a signal that the determination unit determines that the refrigerant leaks in a case where the determination unit receives the signal.
Socket block for forming a patchboard, having a box-shaped housing , having two end faces and four side faces which extend between the end faces , wherein the two end faces each have at least one terminal region , wherein all side faces each have at least one tongue or at least one groove , and at least one corresponding groove or tongue for connection to the tongue or groove of another socket block is formed in the respective opposite side face, and wherein a connecting element is formed on the at least one tongue , and the at least one groove has a corresponding counter-connecting element characterized in that the tongue has at least one latching element at its front end in the assembly direction (R), and that a latching recess or latching opening corresponding to the latching element is formed in the housing at the end of the corresponding groove . wherein all side faces each have at least one tongue or at least one groove , and at least one corresponding groove or tongue for connection to the tongue or groove of another socket block is formed in the respective opposite side face, and wherein a connecting element is formed on the at least one tongue , and the at least one groove has a corresponding counter-connecting element characterized in that the tongue has at least one latching element at its front end in the assembly direction (R), and that a latching recess or latching opening corresponding to the latching element is formed in the housing at the end of the corresponding groove .
A polyisocyanate composition wherein the polyisocyanate composition is obtained from: a polyisocyanate obtained from at least one diisocyanate selected from the group consisting of an aliphatic diisocyanate and an alicyclic diisocyanate; a polycarbonate diol; and a hydrophilic compound, wherein the hydrophilic compound can react with one isocyanate group per molecule thereof, and wherein the polyisocyanate composition comprises a diisocyanate trimer having an unreacted isocyanurate group in an amount of 10 mass% or more and 60 mass% or less based on a solid content of the polyisocyanate composition. wherein the polyisocyanate composition is obtained from: a polyisocyanate obtained from at least one diisocyanate selected from the group consisting of an aliphatic diisocyanate and an alicyclic diisocyanate; a polycarbonate diol; and a hydrophilic compound, a polyisocyanate obtained from at least one diisocyanate selected from the group consisting of an aliphatic diisocyanate and an alicyclic diisocyanate; a polycarbonate diol; and a hydrophilic compound, wherein the hydrophilic compound can react with one isocyanate group per molecule thereof, and wherein the polyisocyanate composition comprises a diisocyanate trimer having an unreacted isocyanurate group in an amount of 10 mass% or more and 60 mass% or less based on a solid content of the polyisocyanate composition.
A method for managing processing resources for an online game that presents a gaming world, comprising: executing the online game for one or more users, each of the one or more users is provided access to one or more virtual locations of the gaming world; assigning compute to said one or more users for processing gaming interactivity in the gaming world; determining that a number of said users are accessing a region within one of said virtual locations and that said number of said users exceeds a predefined limit for said compute assigned to said users in said region; dividing the region into a plurality of sub-regions, responsive to said number of users exceeding the predefined limit; and assigning additional compute for the region, such that the compute and the additional compute are configured to process gaming interactivity in the gaming world for the users in each of the sub-regions; wherein assigning of additional compute is performed at a micro-level by adding computing resource components to existing computes for the region or at a macro-level by adding one or more additional computes for the region, depending on the amount by which the number of said users exceed the predefined limit for said compute assigned to said region, wherein determining the number of users accessing the region includes tracking movement of each of said one or more users within each of the plurality of sub-regions, the movement of users used to adjust the compute assigned for the region. executing the online game for one or more users, each of the one or more users is provided access to one or more virtual locations of the gaming world; assigning compute to said one or more users for processing gaming interactivity in the gaming world; determining that a number of said users are accessing a region within one of said virtual locations and that said number of said users exceeds a predefined limit for said compute assigned to said users in said region; dividing the region into a plurality of sub-regions, responsive to said number of users exceeding the predefined limit; and assigning additional compute for the region, such that the compute and the additional compute are configured to process gaming interactivity in the gaming world for the users in each of the sub-regions; wherein assigning of additional compute is performed at a micro-level by adding computing resource components to existing computes for the region or at a macro-level by adding one or more additional computes for the region, depending on the amount by which the number of said users exceed the predefined limit for said compute assigned to said region, wherein determining the number of users accessing the region includes tracking movement of each of said one or more users within each of the plurality of sub-regions, the movement of users used to adjust the compute assigned for the region.