mhurhangee/patent-ind-claim-en huggingface dataset:
A selective D3 antagonist for use in the treatment of schizophrenia in a subject in need thereof, characterized in that it comprises administering to the subject a therapeutically effective amount of said selective D3 antagonist, wherein said selective D3 antagonist is N-(3-{4-[4-(8-oxo-8H- dioxolo[4,5-g]chromen-7-yl)-butyl]-piperazin-1-yl}-phenyl)-methanesulfonamide of the following formula 1 or a pharmaceutically acceptable salt thereof: wherein said subject has at least one negative symptom (NS) among the following core negative symptoms in PANSS (Positive and Negative Syndrome Scale): - Blunted Affect (N1), - Emotional Withdrawal (N2), - Poor Rapport (N3), - Passive withdrawal (N4), and - Lack of Spontaneity (N6), with moderate or higher severity, wherein said moderate or higher severity corresponds to a score equal to 4 or higher before beginning of said treatment. - Blunted Affect (N1), - Emotional Withdrawal (N2), - Poor Rapport (N3), - Passive withdrawal (N4), and - Lack of Spontaneity (N6),
A relay node in a mobile communication network for receiving a radio signal from a first base station and forwarding the signal to a first mobile station , the relay node comprising: a control unit configured to manage a first information corresponding to a link between the relay node and the first mobile station ; a transmitter configured to directly transmit the first information to another relay node in the mobile communication network associated to a second base station ; a receiver configured to receive, from the other relay node , second information corresponding to a link between the other relay node and a second mobile station ; wherein the control unit is configured to control resources used to communicate with the first mobile station based on the first information and the second information, wherein the receiver is configured to receive resource allocation information from the first base station indicating communication resources assigned to the relay node for directly communicating with the other relay node , and wherein the transmitter is configured to directly transmit the first information to the other relay node in the mobile communication network based on the resource allocation information received from the first base station . a control unit configured to manage a first information corresponding to a link between the relay node and the first mobile station ; a transmitter configured to directly transmit the first information to another relay node in the mobile communication network associated to a second base station ; a receiver configured to receive, from the other relay node , second information corresponding to a link between the other relay node and a second mobile station ; wherein the control unit is configured to control resources used to communicate with the first mobile station based on the first information and the second information, wherein the receiver is configured to receive resource allocation information from the first base station indicating communication resources assigned to the relay node for directly communicating with the other relay node , and wherein the transmitter is configured to directly transmit the first information to the other relay node in the mobile communication network based on the resource allocation information received from the first base station .
A method performed by an IP multimedia system, IMS, node for handling data of a user equipment , UE, in a communication network , wherein the communication network comprises partitioned sets of functionalities of one or more core networks wherein each set of functionalities belongs to a network slice, the method comprising: - receiving a message for registering the UE to an IMS of the IMS node , wherein the message comprises a slice indication indicating a network slice identity and a UE indication identifying the UE ; and being characterised by - storing a registration of the UE in the IMS node comprising the indicated network slice identity, in addition to a previously stored registration of the UE comprising a previous network slice identity, with the proviso that the indicated network slice identity differs from the previous network slice identity of the previously stored registration of the UE and thereby allowing parallel active communications using the registration and the previously stored registration. - receiving a message for registering the UE to an IMS of the IMS node , wherein the message comprises a slice indication indicating a network slice identity and a UE indication identifying the UE ; and being characterised by - storing a registration of the UE in the IMS node comprising the indicated network slice identity, in addition to a previously stored registration of the UE comprising a previous network slice identity, with the proviso that the indicated network slice identity differs from the previous network slice identity of the previously stored registration of the UE and thereby allowing parallel active communications using the registration and the previously stored registration.
A computer-implemented method of determining the location of a mobile device comprising a camera and at least one inertial sensor, comprising the steps of: capturing, using the camera, a sequence of images over a period of time; for pairs of consecutive images from the sequence of images, determining, using a convolutional neural network, features indicative of the motion of the device between the time the first image of the pair of images was captured and the time the second image of the pair of images was captured; capturing, using the at least one inertial sensor, data indicative of the motion of the device; determining, using a first recurrent neural network, features indicative of the motion of the device from the data indicative of the motion of the device from the at least one inertial sensor; for the sequence of images, determining, using a second recurrent neural network, features indicative of the location of the device from the features determined by the convolutional neural network and the first recurrent neural network; and for the sequence of images, determining the location of the device from the features determined by the second recurrent neural network. capturing, using the camera, a sequence of images over a period of time; for pairs of consecutive images from the sequence of images, determining, using a convolutional neural network, features indicative of the motion of the device between the time the first image of the pair of images was captured and the time the second image of the pair of images was captured; capturing, using the at least one inertial sensor, data indicative of the motion of the device; determining, using a first recurrent neural network, features indicative of the motion of the device from the data indicative of the motion of the device from the at least one inertial sensor; for the sequence of images, determining, using a second recurrent neural network, features indicative of the location of the device from the features determined by the convolutional neural network and the first recurrent neural network; and for the sequence of images, determining the location of the device from the features determined by the second recurrent neural network.
Calibration system for calibrating a building platform system arranged in a building space of an additive manufacturing device, wherein the additive manufacturing device has a controllable laser for consolidating material during additive manufacturing on the building platform system , and wherein the calibration system comprises a calibration plate fixable on the building platform system and an optics module , wherein - the calibration plate consists of a predetermined base material, the calibration plate having a visible surface on one of its two flat plate sides, and - the optics module comprises an optical detection unit (4.1) and an optics holder (4.2), characterized in that - the visible surface the calibration plate is provided with a surface layer that contrasts in color with the base material, and - the optics module further comprises a support plate (4.3) for covering the building space of the additive manufacturing device, wherein the optical detection unit (4.1) is fastened by means of the optics holder (4.2) to the support plate (4.3) in the region of a light passage recess in the support plate (4.3) for optical image capture of the calibration plate fixed on the building platform system , and wherein lighting means for illuminating the building space are attached to the support plate (4.3) on the building space side. - the calibration plate consists of a predetermined base material, the calibration plate having a visible surface on one of its two flat plate sides, and - the optics module comprises an optical detection unit (4.1) and an optics holder (4.2), - the visible surface the calibration plate is provided with a surface layer that contrasts in color with the base material, and - the optics module further comprises a support plate (4.3) for covering the building space of the additive manufacturing device, wherein the optical detection unit (4.1) is fastened by means of the optics holder (4.2) to the support plate (4.3) in the region of a light passage recess in the support plate (4.3) for optical image capture of the calibration plate fixed on the building platform system , and wherein lighting means for illuminating the building space are attached to the support plate (4.3) on the building space side.
Drive unit for a joint being arranged between two arm members of a manipulator of a robotic system, the drive unit being intended for the rotatory drive of the one arm member in relation to the other arm member, having a motor , which drives a drive shaft , and having an output element , which is connected to the one arm member and which is directly or indirectly set into rotation by means of the drive shaft , comprising a circuit board , on which a sensor device with respect to the drive as provided by the drive shaft and a sensor device with respect to the output as provided by the output element are arranged at opposite sides of the circuit board, - in which the drive shaft is formed as a hollow shaft and the output element is rotationally fixedly connected to a sensor shaft , which traverses the drive shaft with a radial distance and which extends through an opening in the circuit board to above the side of the circuit board , which side is opposite to the motor , - in which the drive shaft extends to below the circuit board , wherein the sensor device for the drive is arranged at the side of the circuit board , which faces the motor , - in which a sensor ring is arranged at the face-side axial end of the sensor shaft above the circuit board , which sensor ring cooperates with the sensor device for the output, - in which a sensor ring is arranged at the face-side axial end of the drive shaft , which end faces the circuit board , which sensor ring cooperates with the sensor device for the drive, - and in which the sensor ring for the drive and the sensor ring for the output are located opposite to each other at both sides of the circuit board in a congruent manner; characterized in that the sensor device being associated to the sensor ring for the output and the sensor device being associated to the sensor ring for the drive are located diametrically opposite to each other at both sides of the circuit board . - in which the drive shaft is formed as a hollow shaft and the output element is rotationally fixedly connected to a sensor shaft , which traverses the drive shaft with a radial distance and which extends through an opening in the circuit board to above the side of the circuit board , which side is opposite to the motor , - in which the drive shaft extends to below the circuit board , wherein the sensor device for the drive is arranged at the side of the circuit board , which faces the motor , - in which a sensor ring is arranged at the face-side axial end of the sensor shaft above the circuit board , which sensor ring cooperates with the sensor device for the output, - in which a sensor ring is arranged at the face-side axial end of the drive shaft , which end faces the circuit board , which sensor ring cooperates with the sensor device for the drive, - and in which the sensor ring for the drive and the sensor ring for the output are located opposite to each other at both sides of the circuit board in a congruent manner;
A navigation system for a host vehicle , the system comprising: at least one processing device programmed to: receive , from a camera (122;124;126), a plurality of images representative of an environment of the host vehicle ; characterized by the at least one processing device further being programmed to: analyze at least one of the plurality of images to identify at least two stationary vehicles; determine , based on analysis of the at least one of the plurality of images, a spacing between the two stationary vehicles; determine whether a magnitude of the spacing is sufficient for a pedestrian or target vehicle to traverse; and cause at least one navigational change in the host vehicle based on whether the magnitude of the spacing determined between the two stationary vehicles is sufficient for the pedestrian or target vehicle to traverse. receive , from a camera (122;124;126), a plurality of images representative of an environment of the host vehicle ; characterized by the at least one processing device further being programmed to: analyze at least one of the plurality of images to identify at least two stationary vehicles; determine , based on analysis of the at least one of the plurality of images, a spacing between the two stationary vehicles; determine whether a magnitude of the spacing is sufficient for a pedestrian or target vehicle to traverse; and cause at least one navigational change in the host vehicle based on whether the magnitude of the spacing determined between the two stationary vehicles is sufficient for the pedestrian or target vehicle to traverse. analyze at least one of the plurality of images to identify at least two stationary vehicles; determine , based on analysis of the at least one of the plurality of images, a spacing between the two stationary vehicles; determine whether a magnitude of the spacing is sufficient for a pedestrian or target vehicle to traverse; and cause at least one navigational change in the host vehicle based on whether the magnitude of the spacing determined between the two stationary vehicles is sufficient for the pedestrian or target vehicle to traverse.
A computer implemented method for load balancing within a mobile wireless communications network , the method comprising: i. collecting performance parameters; ii. determining if load balancing is applicable in response to the collected performance parameters, wherein in response to determining that load balancing is applicable the method comprises: iii. adjusting geometry of a cell in the mobile wireless communications network by adjusting one or more of a pilot power associated with the cell or antenna tilt associated with the cell; and iv. adjusting radio access network parameters by adjusting a handover parameter of the cell and/or a handover parameter of a neighboring cell to reallocate traffic from the cell to the neighboring cell if the neighboring cell has spare capacity. i. collecting performance parameters; ii. determining if load balancing is applicable in response to the collected performance parameters, wherein in response to determining that load balancing is applicable the method comprises: iii. adjusting geometry of a cell in the mobile wireless communications network by adjusting one or more of a pilot power associated with the cell or antenna tilt associated with the cell; and iv. adjusting radio access network parameters by adjusting a handover parameter of the cell and/or a handover parameter of a neighboring cell to reallocate traffic from the cell to the neighboring cell if the neighboring cell has spare capacity. iii. adjusting geometry of a cell in the mobile wireless communications network by adjusting one or more of a pilot power associated with the cell or antenna tilt associated with the cell; and iv. adjusting radio access network parameters by adjusting a handover parameter of the cell and/or a handover parameter of a neighboring cell to reallocate traffic from the cell to the neighboring cell if the neighboring cell has spare capacity.
A cooling system, comprising: an inlet port and an outlet port to be coupled to one or more electronic devices; a first loop having a heat exchanger coupled to the inlet port and the outlet port , wherein the heat exchanger is to receive fluid from the inlet port , to exchange heat generated by the electronic devices and carried by the fluid, and to return the fluid to the electronic devices via the outlet; and a second loop comprising a buffer loop coupled to the inlet port and a buffer unit , the second loop having a first valve to control the fluid to flow into the buffer unit for storage and to discharge the fluid from the buffer unit to follow into the first loop for heat exchange, wherein the buffer loop is bidirectional, wherein the buffer unit comprises an air section to store air and a buffer section to store a portion of the fluid, and wherein the air section is configured to adjust its air pressure based on a temperature obtained from a temperature sensor disposed on the heat exchanger and a fluid pressure obtained from a pressure sensor disposed near the inlet port . an inlet port and an outlet port to be coupled to one or more electronic devices; a first loop having a heat exchanger coupled to the inlet port and the outlet port , wherein the heat exchanger is to receive fluid from the inlet port , to exchange heat generated by the electronic devices and carried by the fluid, and to return the fluid to the electronic devices via the outlet; and a second loop comprising a buffer loop coupled to the inlet port and a buffer unit , the second loop having a first valve to control the fluid to flow into the buffer unit for storage and to discharge the fluid from the buffer unit to follow into the first loop for heat exchange, wherein the buffer loop is bidirectional, wherein the buffer unit comprises an air section to store air and a buffer section to store a portion of the fluid, and wherein the air section is configured to adjust its air pressure based on a temperature obtained from a temperature sensor disposed on the heat exchanger and a fluid pressure obtained from a pressure sensor disposed near the inlet port .
A computer expansion card for an electronic device, the computer expansion card comprising: an enclosure wall having an opening , a sleeve integrally formed with the enclosure wall , the sleeve having a front aperture aligned with the opening in the enclosure wall , the sleeve extending into the electronic device from the enclosure wall , wherein the sleeve and the enclosure wall are conductive; a board comprising a plurality of pads along a first edge, the board further comprising a ground plane; a connector receptacle mounted on the board and comprising: a tongue located in the sleeve ; a plurality of contacts having contacting portions on the tongue and contact tails attached to the board ; and a shield around a portion of the connector receptacle and electrically connected to the ground plane; an electronic circuitry located on the board and electrically connected to a pad on the board and a contact in the connector receptacle , characterized in that the enclosure wall comprises a plurality of perforations to allow improved ventilation for the computer expansion card and in that the computer expansion card further comprises a conductive structure between the shield and the sleeve forming an electrical connection between the shield and the sleeve . an enclosure wall having an opening , a sleeve integrally formed with the enclosure wall , the sleeve having a front aperture aligned with the opening in the enclosure wall , the sleeve extending into the electronic device from the enclosure wall , wherein the sleeve and the enclosure wall are conductive; a board comprising a plurality of pads along a first edge, the board further comprising a ground plane; a connector receptacle mounted on the board and comprising: a tongue located in the sleeve ; a plurality of contacts having contacting portions on the tongue and contact tails attached to the board ; and a shield around a portion of the connector receptacle and electrically connected to the ground plane; an electronic circuitry located on the board and electrically connected to a pad on the board and a contact in the connector receptacle , characterized in that the enclosure wall comprises a plurality of perforations to allow improved ventilation for the computer expansion card and in that the computer expansion card further comprises a conductive structure between the shield and the sleeve forming an electrical connection between the shield and the sleeve . a tongue located in the sleeve ; a plurality of contacts having contacting portions on the tongue and contact tails attached to the board ; and a shield around a portion of the connector receptacle and electrically connected to the ground plane; an electronic circuitry located on the board and electrically connected to a pad on the board and a contact in the connector receptacle , characterized in that the enclosure wall comprises a plurality of perforations to allow improved ventilation for the computer expansion card and in that the computer expansion card further comprises a conductive structure between the shield and the sleeve forming an electrical connection between the shield and the sleeve .
A tire pressure sensor mountable to a rim, comprising: a sensor assembly provided with a through hole ; a valve assembly comprising a valve rod , a valve cover mounted to one end of the valve rod , a rod sleeve sleeved between two ends of the valve rod and a fastener connected to the other end of the valve rod through threads, one of the fastener and the valve rod passing through the through hole , and the fastener and the valve rod clamping the sensor assembly ; the valve assembly rotatable relative to the sensor assembly about a preset axis (O), so that the sensor assembly and the rim fit together, characterized in that : there are at least two sets of the valve assemblies , the at least two sets of the valve assemblies being alternatively connected to the sensor assembly , a rod sleeve of one of the at least two sets of the valve assemblies being made of a metal material, and a rod sleeve of the other of the at least two sets of the valve assemblies being made of a rubber material. a sensor assembly provided with a through hole ; a valve assembly comprising a valve rod , a valve cover mounted to one end of the valve rod , a rod sleeve sleeved between two ends of the valve rod and a fastener connected to the other end of the valve rod through threads, one of the fastener and the valve rod passing through the through hole , and the fastener and the valve rod clamping the sensor assembly ; the valve assembly rotatable relative to the sensor assembly about a preset axis (O), so that the sensor assembly and the rim fit together, characterized in that : there are at least two sets of the valve assemblies , the at least two sets of the valve assemblies being alternatively connected to the sensor assembly , a rod sleeve of one of the at least two sets of the valve assemblies being made of a metal material, and a rod sleeve of the other of the at least two sets of the valve assemblies being made of a rubber material.