mhurhangee/ep-ind-claims huggingface dataset:
A screening device for an architectural opening, such as a window, the screening device comprises - screening means for screening at least a part of the architectural opening, - screening displacement means for displacing the screening means, where the screening displacement means comprises a motor drive arranged for driving the screening displacement means, and where the motor drive is controllable dependent on at least one driving parameter, where the screening device comprises at least one electronic storage circuit comprising stored information, where the motor drive comprises an electronic reader arranged to receive the stored information via wireless communication between the at least one electronic storage circuit and the electronic reader, and where the motor drive is arranged to obtain the at least one driving parameter based on the stored information. - screening means for screening at least a part of the architectural opening, - screening displacement means for displacing the screening means, where the screening displacement means comprises a motor drive arranged for driving the screening displacement means, and where the motor drive is controllable dependent on at least one driving parameter,
A method, comprising: measuring a distance from a lens (24, 124) to a mark; calculating a focus position for an autofocus system that focuses the lens (24, 124) on the mark; applying an offset to the calculated focus position to produce an offset focus position; setting the autofocus system to the offset focus position; acquiring an image of the mark with the autofocus system set to the offset focus position; and providing the image of the mark to a decoder for decoding; wherein the method further comprises determining the offset by calculating the offset based on one or more of: a distance between dots of the mark, the distance from the lens (24, 124) to the mark, and a focus position. measuring a distance from a lens (24, 124) to a mark; calculating a focus position for an autofocus system that focuses the lens (24, 124) on the mark; applying an offset to the calculated focus position to produce an offset focus position; setting the autofocus system to the offset focus position; acquiring an image of the mark with the autofocus system set to the offset focus position; and providing the image of the mark to a decoder for decoding; wherein the method further comprises determining the offset by calculating the offset based on one or more of: a distance between dots of the mark, the distance from the lens (24, 124) to the mark, and a focus position.
An intraoperative system for registration of intraoperative images of a surgical site of a subject, to a surgical plan generated preoperatively, said surgical plan showing the planned position of implants on images of said surgical site, said system being configured to: (a) acquire a three dimensional set of preoperative images of at least the surgical site to which said surgical plan relates; (b) acquire a first at least one intraoperative image of said surgical site; (c) register said first at least one intraoperative image with said preoperative image set showing said planned position of implants, such that said planned position of implants is virtually imposed on said first at least one intraoperative image; (d) acquire a second at least one intraoperative image showing the position of previously inserted implants; (e) register said second at least one intraoperative image showing said previously inserted implants from item (d) with said first intraoperative image from item (c) using said previously inserted implants as fiducial markers; (f) present a position of the inserted implants for a surgeon to verify the position according to said preoperative plan of said previously inserted implants in further intraoperative images, using said registration from item (e); and (g) repeat at least some of items (d) to (f). (a) acquire a three dimensional set of preoperative images of at least the surgical site to which said surgical plan relates; (b) acquire a first at least one intraoperative image of said surgical site; (c) register said first at least one intraoperative image with said preoperative image set showing said planned position of implants, such that said planned position of implants is virtually imposed on said first at least one intraoperative image; (d) acquire a second at least one intraoperative image showing the position of previously inserted implants; (e) register said second at least one intraoperative image showing said previously inserted implants from item (d) with said first intraoperative image from item (c) using said previously inserted implants as fiducial markers; (f) present a position of the inserted implants for a surgeon to verify the position according to said preoperative plan of said previously inserted implants in further intraoperative images, using said registration from item (e); and (g) repeat at least some of items (d) to (f).
An LED lamp (1, 2, 3) comprising: a light emitting circuit (LED 1-n; LED m-1) having an LED adapted to emit light by electric current inputted from a discharge lamp illumination device; two terminals (A3, A4) of a first side of the light emitting circuit (LED 1-n; LED m-1) and two terminals (B3, B4) of a second side of the light emitting circuit (LED 1-n; LED m-1); a capacitive component connected between one terminal of the first side of the light emitting circuit (LED 1-n; LED m-1) and one terminal of the second side of the light emitting circuit (LED 1-n; LED m-1) and in parallel to an output of the discharge lamp illumination device, wherein the LED lamp (1, 2, 3) is attachable by means of the terminals (A3, A4, B3, B4) of the LED lamp (1, 2, 3) to the discharge lamp illumination device; characterized in that the two terminals (A3, A4) of the first side of the light emitting circuit (LED 1-n; LED m-1) are short circuited, and that the two terminals (B3, B4) of the second side of the light emitting circuit (LED 1-n; LED m-1) are either short circuited or else one of said terminals of the second side of the light emitting circuit (LED 1-n; LED m-1) has no electrical connection to the other terminals (A3, A4, B4)of the LED lamp (1, 2, 3). a light emitting circuit (LED 1-n; LED m-1) having an LED adapted to emit light by electric current inputted from a discharge lamp illumination device; two terminals (A3, A4) of a first side of the light emitting circuit (LED 1-n; LED m-1) and two terminals (B3, B4) of a second side of the light emitting circuit (LED 1-n; LED m-1); a capacitive component connected between one terminal of the first side of the light emitting circuit (LED 1-n; LED m-1) and one terminal of the second side of the light emitting circuit (LED 1-n; LED m-1) and in parallel to an output of the discharge lamp illumination device, wherein the LED lamp (1, 2, 3) is attachable by means of the terminals (A3, A4, B3, B4) of the LED lamp (1, 2, 3) to the discharge lamp illumination device; characterized in that the two terminals (A3, A4) of the first side of the light emitting circuit (LED 1-n; LED m-1) are short circuited, and that the two terminals (B3, B4) of the second side of the light emitting circuit (LED 1-n; LED m-1) are either short circuited or else one of said terminals of the second side of the light emitting circuit (LED 1-n; LED m-1) has no electrical connection to the other terminals (A3, A4, B4)of the LED lamp (1, 2, 3).
A composition in the form of an emulsion comprising a hydrophobic phase dispersed in an aqueous phase, which composition contains emulsifying particles capable of stabilizing said emulsion, wherein at least some of said particles do consist of cellulose nanocrystals having an elongated shape which satisfy the following features: a length ranging from 25 nm to 1 μm, and a width ranging from 5 to 30 nm.
A base station characterized by comprising: a radio reception section which processes a received signal comprising an ACK/NACK signal transmitted from a first mobile station which is code-multiplexed with a CQI signal transmitted from a second mobile station; characterized by: a correlation processing section configured to output a first correlation result found by using a sequence defined by one of first cyclical shift values used to spread to the ACK/NACK signal from the first mobile station and to output a second correlation result found by using a sequence defined by one of second cyclical shift values used to spread the CQI signal from the second mobile station; a detection section configured to detect the ACK/NACK signal from the first correlation result; a demodulation section configured to demodulate the CQI signal from the second correlation result; a cyclic shift value between the first cyclic shift values and the second cyclic shift values not being used for either the ACK/NACK signal or the CQI signal. a radio reception section which processes a received signal comprising an ACK/NACK signal transmitted from a first mobile station which is code-multiplexed with a CQI signal transmitted from a second mobile station; characterized by: a correlation processing section configured to output a first correlation result found by using a sequence defined by one of first cyclical shift values used to spread to the ACK/NACK signal from the first mobile station and to output a second correlation result found by using a sequence defined by one of second cyclical shift values used to spread the CQI signal from the second mobile station; a detection section configured to detect the ACK/NACK signal from the first correlation result; a demodulation section configured to demodulate the CQI signal from the second correlation result; a cyclic shift value between the first cyclic shift values and the second cyclic shift values not being used for either the ACK/NACK signal or the CQI signal. a correlation processing section configured to output a first correlation result found by using a sequence defined by one of first cyclical shift values used to spread to the ACK/NACK signal from the first mobile station and to output a second correlation result found by using a sequence defined by one of second cyclical shift values used to spread the CQI signal from the second mobile station; a detection section configured to detect the ACK/NACK signal from the first correlation result; a demodulation section configured to demodulate the CQI signal from the second correlation result; a cyclic shift value between the first cyclic shift values and the second cyclic shift values not being used for either the ACK/NACK signal or the CQI signal.
A wire rod for springs with improved toughness and corrosion fatigue properties, the wire rod comprising: by weight percent, carbon: 0.4 to 0.7%, silicon (Si): 1.2 to 2.3%, manganese (Mn): 0.2 to 0.8%, chromium (Cr): 0.2 to 0.8%, optionally one or more elements selected from vanadium: 0.01 to 0.2%, niobium (Nb): 0.01 to 0.1%, titanium (Ti): 0.01 to 0.15%, and molybdenum (Mo): 0.01 to 0.4%, optionally one or more elements selected from copper (Cu): 0.01 to 0.4% and nickel (Ni): 0.01 to 0.6% and a balance of iron (Fe) and inevitable impurities, wherein a grain size is 13.2 μm or less; a Charpy impact energy is 38 J/cm 2 or more; a colony size of pearlite is 1.7 - 5.6 μm; and a microstructure of the wire rod comprises, by area fraction, 5 to 37% of ferrite; and the remainder is pearlite, with bainite or martensite not being present in the microstructure. a grain size is 13.2 μm or less; a Charpy impact energy is 38 J/cm 2 or more; a colony size of pearlite is 1.7 - 5.6 μm; and a microstructure of the wire rod comprises, by area fraction, 5 to 37% of ferrite; and the remainder is pearlite, with bainite or martensite not being present in the microstructure.
A communication method, comprising: determining, by a first session management function entity based on information of a terminal group, one or more user plane function entities accessed by one or more terminals in the terminal group; determining, by the first session management function entity, a target user plane function entity based on the one or more user plane function entities, wherein the target user plane function entity is used to perform communication between a first terminal and a second terminal in the terminal group based on local routing information, wherein the communication passes through the target user plane function entity and one of a base station accessed by the second terminal or a user plane function entity accessed by the second terminal, and does not pass through a data network; and sending, by the first session management function entity, the local routing information to the target user plane function entity; wherein the determining, by the first session management function entity, the target user plane function entity based on the one or more user plane function entities comprises: selecting, by the first session management function entity, the target user plane function entity from the one or more user plane function entities accessed by the terminals. determining, by a first session management function entity based on information of a terminal group, one or more user plane function entities accessed by one or more terminals in the terminal group; determining, by the first session management function entity, a target user plane function entity based on the one or more user plane function entities, wherein the target user plane function entity is used to perform communication between a first terminal and a second terminal in the terminal group based on local routing information, wherein the communication passes through the target user plane function entity and one of a base station accessed by the second terminal or a user plane function entity accessed by the second terminal, and does not pass through a data network; and sending, by the first session management function entity, the local routing information to the target user plane function entity; wherein the determining, by the first session management function entity, the target user plane function entity based on the one or more user plane function entities comprises: selecting, by the first session management function entity, the target user plane function entity from the one or more user plane function entities accessed by the terminals.
A method (50, 80) for configuring a hearing aid system, the hearing aid system comprising a first hearing device, a second hearing device and a controller adapted to communicate with each other, wherein the hearing devices and the controller form a master-slave configuration, and wherein one of the hearing devices is a master hearing device and the other hearing device is a slave hearing device, the method comprising the steps of - detecting (54, 84) a presence of master hearing device by the slave hearing device and connecting the slave hearing device to the master hearing device, - upon losing connection (64, 86) with the master hearing device, transmitting a signal from the slave hearing device to the controller, informing the controller of the absence of the master hearing device, - checking (66, 88) by the controller whether the master hearing device is absent, - issuing a role-switch command (56, 100) to the slave hearing device by the controller and configuring the slave hearing device to act as a master, when an absence of the master hearing device is verified by the controller and - continuing the operation as a slave (68, 90) by the slave hearing device, when an absence of the master hearing device is not verified by the controller. - detecting (54, 84) a presence of master hearing device by the slave hearing device and connecting the slave hearing device to the master hearing device, - upon losing connection (64, 86) with the master hearing device, transmitting a signal from the slave hearing device to the controller, informing the controller of the absence of the master hearing device, - checking (66, 88) by the controller whether the master hearing device is absent, - issuing a role-switch command (56, 100) to the slave hearing device by the controller and configuring the slave hearing device to act as a master, when an absence of the master hearing device is verified by the controller and - continuing the operation as a slave (68, 90) by the slave hearing device, when an absence of the master hearing device is not verified by the controller.
A refrigerator comprising: a storage compartment (20, 30); a first air flow path provided outside the storage compartment; a second air flow path having at least a portion separated from the first air flow path; an evaporator provided on the first flow path and configured to provide cooled air to the storage compartment; a compressor; a blower fan configured to discharge air cooled by the first air flow path to the storage compartment along the first air flow path; a defrost heater configured to heat the evaporator to defrost the evaporator; a defrost fan configured to blow air, heated by the defrost heater, from the first air flow path to the second air flow path; and a controller configured to: perform a cooling operation and a defrosting operation alternately, operate the compressor and the blower fan during the cooling operation, operate the defrost heater and the defrost fan during the defrosting operation, characterized in that the controller is configured to change a rotational speed of the defrost fan during the defrosting operation, wherein the controller increases the rotational speed of the defrost fan in response to an increase in a temperature of the storage compartment, to prevent discharging the heated air into the storage compartment. a storage compartment (20, 30); a first air flow path provided outside the storage compartment; a second air flow path having at least a portion separated from the first air flow path; an evaporator provided on the first flow path and configured to provide cooled air to the storage compartment; a compressor; a blower fan configured to discharge air cooled by the first air flow path to the storage compartment along the first air flow path; a defrost heater configured to heat the evaporator to defrost the evaporator; a defrost fan configured to blow air, heated by the defrost heater, from the first air flow path to the second air flow path; and a controller configured to: perform a cooling operation and a defrosting operation alternately, operate the compressor and the blower fan during the cooling operation, operate the defrost heater and the defrost fan during the defrosting operation, characterized in that the controller is configured to change a rotational speed of the defrost fan during the defrosting operation, wherein the controller increases the rotational speed of the defrost fan in response to an increase in a temperature of the storage compartment, to prevent discharging the heated air into the storage compartment. perform a cooling operation and a defrosting operation alternately, operate the compressor and the blower fan during the cooling operation, operate the defrost heater and the defrost fan during the defrosting operation, characterized in that the controller is configured to change a rotational speed of the defrost fan during the defrosting operation, wherein the controller increases the rotational speed of the defrost fan in response to an increase in a temperature of the storage compartment, to prevent discharging the heated air into the storage compartment.
A method of testing an overspeed protection system of a powerplant, the method comprising: providing a powerplant comprising a powerplant machine (105, 145), a shaft, and an operational control system, wherein the operational control system is configured for operating the powerplant machine (105,145) and comprises an overspeed protection system configured for detecting an overspeed event associated with the shaft; determining that the powerplant machine (105, 145) is operating in a start-up mode; determining whether a testing permissive is satisfied; determining whether the speed of the shaft is within a testing range; changing an overspeed trip set point to a start-up trip set point, the start-up trip set point being selected to minimize thermal transients associated with an overspeed trip of the powerplant machine (245,250); and determining whether the overspeed protection system would operate to trip the powerplant machine (245,250). providing a powerplant comprising a powerplant machine (105, 145), a shaft, and an operational control system, wherein the operational control system is configured for operating the powerplant machine (105,145) and comprises an overspeed protection system configured for detecting an overspeed event associated with the shaft; determining that the powerplant machine (105, 145) is operating in a start-up mode; determining whether a testing permissive is satisfied; determining whether the speed of the shaft is within a testing range; changing an overspeed trip set point to a start-up trip set point, the start-up trip set point being selected to minimize thermal transients associated with an overspeed trip of the powerplant machine (245,250); and determining whether the overspeed protection system would operate to trip the powerplant machine (245,250).
A drive system (10; 10'; 10"; 100; 200) for a conveyor belt, comprising: a stationary shaft extending along a longitudinal axis; a stator mounted to the stationary shaft wherein the stator comprises an array of wound coils; a rotor rotatably mounted to the stationary shaft using a bearing and spaced from the stator by an air gap wherein the rotor comprises a disc-shaped body with peripheral teeth and an array of magnets; a protrusion extending from the rotor for mounting a drive shaft a drive shaft coupled to the protrusion; wherein the protrusion comprises a hollow square protrusion and wherein the drive shaft is a hollow square configured to receive the protrusion; and a sprocket coupled to the drive shaft. a stationary shaft extending along a longitudinal axis; a stator mounted to the stationary shaft wherein the stator comprises an array of wound coils; a rotor rotatably mounted to the stationary shaft using a bearing and spaced from the stator by an air gap wherein the rotor comprises a disc-shaped body with peripheral teeth and an array of magnets; a protrusion extending from the rotor for mounting a drive shaft a drive shaft coupled to the protrusion; wherein the protrusion comprises a hollow square protrusion and wherein the drive shaft is a hollow square configured to receive the protrusion; and a sprocket coupled to the drive shaft.