mhurhangee/patent-ind-claim-en huggingface dataset:
Semiconductor nanoparticles including at least, In, P, Zn, Se, S and a halogen, wherein contents of P, Zn, Se, S and the halogen, in terms of molar ratio with respect to In, are as follows: 0.05 to 0.95 for P, 0.50 to 15.00 for Zn, 0.50 to 5.00 for Se, 0.10 to 15.00 for S, and 0.10 to 1.50 for the halogen. 0.05 to 0.95 for P, 0.50 to 15.00 for Zn, 0.50 to 5.00 for Se, 0.10 to 15.00 for S, and 0.10 to 1.50 for the halogen.
A device for relaying location information, the device comprising: a receiver to receive first signals from a plurality of first devices associated with a person, each of the first signals comprising a piece of first data, wherein, for at least one of the first devices , the piece of first data is indicative of a real-time user-input activity; a location estimator to estimate a current location and to predict a future location of the person associated with the plurality of first devices , the location estimator : estimating the current location of the person based at least in part on a plurality of weights assigned to different pieces of the pieces of first data; and predicting the future location of the person based on the estimated current location and the pieces of first data; a criterion assessor to determine, based on the predicted future location, that a condition of a location-based rule is satisfied; a setting identifier to identify one or more settings for a second device, the one or more settings being based on the location-based rule and the determination that the condition of the location-based rule is satisfied; a signal generator to generate a second signal that includes the one or more settings; and a transmitter that transmits the second signal to the second device. a receiver to receive first signals from a plurality of first devices associated with a person, each of the first signals comprising a piece of first data, wherein, for at least one of the first devices , the piece of first data is indicative of a real-time user-input activity; a location estimator to estimate a current location and to predict a future location of the person associated with the plurality of first devices , the location estimator : estimating the current location of the person based at least in part on a plurality of weights assigned to different pieces of the pieces of first data; and predicting the future location of the person based on the estimated current location and the pieces of first data; estimating the current location of the person based at least in part on a plurality of weights assigned to different pieces of the pieces of first data; and predicting the future location of the person based on the estimated current location and the pieces of first data; a criterion assessor to determine, based on the predicted future location, that a condition of a location-based rule is satisfied; a setting identifier to identify one or more settings for a second device, the one or more settings being based on the location-based rule and the determination that the condition of the location-based rule is satisfied; a signal generator to generate a second signal that includes the one or more settings; and a transmitter that transmits the second signal to the second device.
A method for wireless communication at a user equipment , UE, comprising: transmitting a UE capability message indicating support for a dual-base station control resource allocation scheme during a make-before-break, MBB, handover procedure from a source base station to a target base station , wherein the dual-base station control resource allocation scheme comprises dividing a maximum number of UE supported control channel monitoring resources between the source base station and the target base station ; identifying , based at least in part on the dual-base station control resource allocation scheme, a first set of control channel monitoring resources for the source base station and a second set of control channel monitoring resources for the target base station ; and receiving , during the MBB handover procedure, control information from the source base station during the first set of control channel monitoring resources and from the target base station during the second set of control channel monitoring resources. transmitting a UE capability message indicating support for a dual-base station control resource allocation scheme during a make-before-break, MBB, handover procedure from a source base station to a target base station , wherein the dual-base station control resource allocation scheme comprises dividing a maximum number of UE supported control channel monitoring resources between the source base station and the target base station ; identifying , based at least in part on the dual-base station control resource allocation scheme, a first set of control channel monitoring resources for the source base station and a second set of control channel monitoring resources for the target base station ; and receiving , during the MBB handover procedure, control information from the source base station during the first set of control channel monitoring resources and from the target base station during the second set of control channel monitoring resources.
A process for reducing the stickiness of a composition of a chewing gum core to an internal contact surface of a first chewing gum processing machinery in a chewing gum preparation process comprising the following steps: a) providing isomalt in an amount suitable to reduce stickiness of the composition to the surface, wherein the isomalt particles have a diameter of less than 100 μm, b) providing a chewing gum base composition and c) kneading the isomalt provided in step a) with the chewing gum base composition provided in step b) and obtaining the isomalt-containing composition of a chewing gum core, wherein step c) is carried out on the internal contact surface of the first chewing gum processing machinery, and wherein the amount of isomalt provided in step a) is at least 10 weight-% of the isomalt-containing composition of the chewing gum core obtained in step c). a) providing isomalt in an amount suitable to reduce stickiness of the composition to the surface, wherein the isomalt particles have a diameter of less than 100 μm, b) providing a chewing gum base composition and c) kneading the isomalt provided in step a) with the chewing gum base composition provided in step b) and obtaining the isomalt-containing composition of a chewing gum core,
Rail vehicle with at least one compressor , which is arranged in a housing and is suitable for generating compressed air (D) for the rail vehicle , wherein a removal facility is present, which makes it possible to move the compressor in a horizontal or at least approximately horizontal manner - in full or at least in relation to a section of the compressor - out of the housing , characterised in that the removal facility is formed by a gas friction bearing or at least also comprises such a gas friction bearing, which exerts a lifting force on the compressor when pressure is applied, in particular raises the compressor , and enables or facilitates a horizontal movement of the compressor .
An aircraft comprising multiple actuators and a power supply apparatus for supplying power to the actuators, wherein for each actuator the power supply apparatus comprises: associated motor drive electronics for actuation of a motor for control of the aerospace actuator; and a local energy storage device being connected with the motor drive electronics; wherein the motor drive electronics are configured to: receive input electrical energy from an aircraft power grid ; receive electrical energy from the energy storage device; and provide electrical energy from the grid and/or from the energy storage device to the motor; and wherein the energy storage device is configured to store at least one of: excess electrical energy supplied to the motor drive electronics from the grid; and regenerated electrical energy from the motor drive electronics; and wherein the energy storage device is configured to discharge the stored energy as electrical energy to the motor drive electronics when required; and wherein the aircraft comprises current carrying components that convey electrical energy from the grid to the motor drive electronics and having a size that is reduced compared to the size of current carrying components needed to supply the peak power levels demanded by the actuator. associated motor drive electronics for actuation of a motor for control of the aerospace actuator; and a local energy storage device being connected with the motor drive electronics; wherein the motor drive electronics are configured to: receive input electrical energy from an aircraft power grid ; receive electrical energy from the energy storage device; and provide electrical energy from the grid and/or from the energy storage device to the motor; and receive input electrical energy from an aircraft power grid ; receive electrical energy from the energy storage device; and provide electrical energy from the grid and/or from the energy storage device to the motor; and wherein the energy storage device is configured to store at least one of: excess electrical energy supplied to the motor drive electronics from the grid; and regenerated electrical energy from the motor drive electronics; and excess electrical energy supplied to the motor drive electronics from the grid; and regenerated electrical energy from the motor drive electronics; and wherein the energy storage device is configured to discharge the stored energy as electrical energy to the motor drive electronics when required; and wherein the aircraft comprises current carrying components that convey electrical energy from the grid to the motor drive electronics and having a size that is reduced compared to the size of current carrying components needed to supply the peak power levels demanded by the actuator.
Motor vehicle headlamp having a headlamp housing and a cover lens and having at least one light source arranged in this motor vehicle headlamp , it being possible for the light from the at least one light source to be imaged in the form of a defined light distribution in front of the motor vehicle headlamp , and a heat sink device being provided for cooling the at least one light source , wherein the heat sink device comprises two heat sink elements separated from each other by an air gap , which are arranged in such a way that a first heat sink element is mounted inside the motor vehicle headlamp and a second heat sink element is mounted outside the motor vehicle headlamp , wherein the heat sink device is provided with a contacting device , which contacting device comprises a contact element or a plurality of contact elements which enables a heat exchange between the heat sink elements when the temperature in the interior of the motor vehicle headlamp is higher than the temperature in the area outside the motor vehicle headlamp to which the second heat sink element is attached, wherein the contact element or the contact elements of the contacting device thereby being in simultaneous thermally conductive contact with the first heat sink element and the second heat sink element , characterized in that no heat exchange is possible between the heat sink elements , when the temperature in the interior of the motor vehicle headlamp is lower than the temperature in the region outside the motor vehicle headlamp to which the second heat sink element is attached, in that the contact elements of the contacting device thereby only being in contact with one heat sink element or no heat sink element .
A method for controlling electrical connection of at least two battery packs of an energy storage system of a vehicle in parallel to a common load during operation of the vehicle, each one of the at least two battery packs being connectable to the load via at least one respective switching device , the method comprising: - receiving measurement data relating to current operating conditions of the energy storage system , - based on at least the measurement data, estimating at least one battery state of each one of the at least two battery packs , wherein said at least one battery state is at least one of an open circuit voltage and a state of charge, the at least one battery state comprising at least the state of charge, the method being characterized by : - based on at least the estimated state of charge and a measured temperature of the at least two battery packs , predicting a magnitude of a circulation current expected to flow between the at least two battery packs upon electrical connection of said at least two battery packs , wherein the magnitude of the circulation current is predicted using a dynamic state-space model of a parallel multi-battery system, which model takes as input a total energy storage system current, initial state of charge, state of health, and temperature values of each battery pack, and gives as output individual battery pack currents including transient and steady-state responses of each individual battery pack, - based on the magnitude of the predicted circulation current, controlling electrical connection of each battery pack to the load via the at least one respective switching device , wherein the at least two battery packs are electrically connected only if the magnitude of the predicted circulation current is below a predefinable allowable circulation current magnitude. - receiving measurement data relating to current operating conditions of the energy storage system , - based on at least the measurement data, estimating at least one battery state of each one of the at least two battery packs , wherein said at least one battery state is at least one of an open circuit voltage and a state of charge, the at least one battery state comprising at least the state of charge, the method being - based on at least the estimated state of charge and a measured temperature of the at least two battery packs , predicting a magnitude of a circulation current expected to flow between the at least two battery packs upon electrical connection of said at least two battery packs , wherein the magnitude of the circulation current is predicted using a dynamic state-space model of a parallel multi-battery system, which model takes as input a total energy storage system current, initial state of charge, state of health, and temperature values of each battery pack, and gives as output individual battery pack currents including transient and steady-state responses of each individual battery pack, - based on the magnitude of the predicted circulation current, controlling electrical connection of each battery pack to the load via the at least one respective switching device ,
A method for making a non-marking anti-static solid tire for a vehicle wheel comprising electrically conducting means , the tire comprising a tread surface delimited by two opposing tire sidewalls , the method comprising the consecutive steps of: - making a preliminary uncured curable solid tire comprising a first layer which extends in circumferential direction of the tire, the first layer comprising an outer circumferential surface and an inner circumferential surface interconnected by opposing first layer sidewalls together delimiting the first layer and being made of a non-marking first material containing a non-marking reinforcing filling material, - adding along at least one of the opposing tire sidewalls of the preliminary tire a conducting material having an electrical resistance which is smaller than the electrical resistance of the first material, the conducting material extending from the inner circumferential surface of the first layer towards the outer circumferential surface of the first layer , - curing the uncured curable preliminary tire provided with the conducting material to obtain the final tire wherein the conducting material is electrically connected to the electrically conducting means of the wheel and wherein the respective first layer sidewalls are part of the respective tire sidewalls . - making a preliminary uncured curable solid tire comprising a first layer which extends in circumferential direction of the tire, the first layer comprising an outer circumferential surface and an inner circumferential surface interconnected by opposing first layer sidewalls together delimiting the first layer and being made of a non-marking first material containing a non-marking reinforcing filling material, - adding along at least one of the opposing tire sidewalls of the preliminary tire a conducting material having an electrical resistance which is smaller than the electrical resistance of the first material, the conducting material extending from the inner circumferential surface of the first layer towards the outer circumferential surface of the first layer , - curing the uncured curable preliminary tire provided with the conducting material to obtain the final tire wherein the conducting material is electrically connected to the electrically conducting means of the wheel and wherein the respective first layer sidewalls are part of the respective tire sidewalls .
Method of displaying virtual information in a view of a real environment comprising the following steps: - providing a system for displaying of virtual information in a view of a real environment, - determining a current pose of at least one part of the system relative to at least one part of the real environment and providing accuracy information of the current pose, - providing multiple pieces of virtual information, and assigning a respective one of the pieces of virtual information to one of different parameters indicative of different pose accuracy information, - displaying at least one of the pieces of virtual information in the view of the real environment according to the accuracy information of the current pose in relation to the assigned parameter of the at least one of the pieces of virtual information, - wherein at least one of the multiple pieces of virtual information is not displayed when the accuracy information of the current pose is equal to or beyond a certain threshold. - providing a system for displaying of virtual information in a view of a real environment, - determining a current pose of at least one part of the system relative to at least one part of the real environment and providing accuracy information of the current pose, - providing multiple pieces of virtual information, and assigning a respective one of the pieces of virtual information to one of different parameters indicative of different pose accuracy information, - displaying at least one of the pieces of virtual information in the view of the real environment according to the accuracy information of the current pose in relation to the assigned parameter of the at least one of the pieces of virtual information, - wherein at least one of the multiple pieces of virtual information is not displayed when the accuracy information of the current pose is equal to or beyond a certain threshold.
A method for capping vessels containing biological samples , the method comprising the steps of: a) providing a disposable cap supply containing a plurality of caps for the vessels containing biological samples , the cap supply comprising compartments accommodating the caps in a predefined geometrical arrangement b) introducing the cap supply into a preanalytical system comprising a housing through an interface in said housing by reversibly docking it to a feeder for inserting the cap supply into the preanalytical system and retrieving it therefrom c) retrieving a cap from the cap supply with a laterally and vertically moveable robotic manipulator and transporting it to a workstation holding the vessels containing biological samples d) capping a vessel containing a biological sample with the cap using the laterally and vertically moveable robotic manipulator e) repeating steps b) to d) a number of times or until all caps of the cap supply have been retrieved by the laterally and vertically moveable robotic manipulator f) retrieving the cap supply from the preanalytical system . a) providing a disposable cap supply containing a plurality of caps for the vessels containing biological samples , the cap supply comprising compartments accommodating the caps in a predefined geometrical arrangement b) introducing the cap supply into a preanalytical system comprising a housing through an interface in said housing by reversibly docking it to a feeder for inserting the cap supply into the preanalytical system and retrieving it therefrom c) retrieving a cap from the cap supply with a laterally and vertically moveable robotic manipulator and transporting it to a workstation holding the vessels containing biological samples d) capping a vessel containing a biological sample with the cap using the laterally and vertically moveable robotic manipulator e) repeating steps b) to d) a number of times or until all caps of the cap supply have been retrieved by the laterally and vertically moveable robotic manipulator f) retrieving the cap supply from the preanalytical system .
A nuclear material detection device for detecting a nuclear material within an object , the nuclear material detection device comprising: a neutron source configured to generate neutrons used for irradiating the object ; a detection section capable of detecting neutrons including primary neutrons emitted from the neutron source and secondary neutrons generated through a nuclear fission reaction of the nuclear material ; a processing section configured to perform a reactor noise analysis process based on data obtained through detecting of neutrons by the detection section ; wherein the neutron source is adapted to generate primary neutrons in a pulsatile manner; characterized in that the processing section is adapted to obtain an edited time series data by excluding data of a time range containing a generation time during which the neutron source generates the primary neutrons in the pulsatile manner, from time series data obtained through detecting of neutrons by the detection section , wherein the processing section is adapted to obtain a neutron count from the edited time series data, generate a noise component value based on a ratio of an average neutron count and a variance of a neutron count; and when the noise component value is larger than a predetermined threshold, to detect the nuclear material within the object. a neutron source configured to generate neutrons used for irradiating the object ; a detection section capable of detecting neutrons including primary neutrons emitted from the neutron source and secondary neutrons generated through a nuclear fission reaction of the nuclear material ; a processing section configured to perform a reactor noise analysis process based on data obtained through detecting of neutrons by the detection section ; wherein the neutron source is adapted to generate primary neutrons in a pulsatile manner; characterized in that the processing section is adapted to obtain an edited time series data by excluding data of a time range containing a generation time during which the neutron source generates the primary neutrons in the pulsatile manner, from time series data obtained through detecting of neutrons by the detection section , wherein the processing section is adapted to obtain a neutron count from the edited time series data, generate a noise component value based on a ratio of an average neutron count and a variance of a neutron count; and when the noise component value is larger than a predetermined threshold, to detect the nuclear material within the object.