mhurhangee/ep-ind-claims huggingface dataset:
A broadcast receiving apparatus comprising: a first cover with a circuit board arranged thereon; at least one component on the circuit board; a second cover coupled to the first cover; and a dipole antenna (300, 400) comprising an antenna pattern arranged on an inner surface of the second cover configured to receive a radio signal, wherein the dipole antenna is coupled to the circuit board and the dipole antenna is configured to transmit the received radio signal to the at least one component and wherein the at least one component is configured to decode the received radio signal into data for transmission to a display apparatus connected with the broadcast receiving apparatus; characterized in that: the antenna pattern comprises two patterns, wherein each pattern has a main radiator and a branch radiator, the main radiators of the two patterns having equal lengths, the branch radiators of the two patterns having equal lengths and the two patterns belonging to the same dipole are configured as an interdigital structure. a first cover with a circuit board arranged thereon; at least one component on the circuit board; a second cover coupled to the first cover; and a dipole antenna (300, 400) comprising an antenna pattern arranged on an inner surface of the second cover configured to receive a radio signal, wherein the dipole antenna is coupled to the circuit board and the dipole antenna is configured to transmit the received radio signal to the at least one component and wherein the at least one component is configured to decode the received radio signal into data for transmission to a display apparatus connected with the broadcast receiving apparatus; characterized in that: the antenna pattern comprises two patterns, wherein each pattern has a main radiator and a branch radiator, the main radiators of the two patterns having equal lengths, the branch radiators of the two patterns having equal lengths and the two patterns belonging to the same dipole are configured as an interdigital structure.
A method for identifying a potential modulator of a cell signalling pathway in a screen to identify a regenerative drug, wherein the regenerative drug acts on a progenitor cell to form a cell for repair or regeneration of a tissue or organ in a body, comprising the steps of: (a) providing a cell of a first cell type, wherein said first cell type is differentiated to a second cell type via a progenitor cell; (b) deriving said progenitor cell in vitro, by sequentially exposing said first cell type to one or more culture media; (c) exposing the derived progenitor cell to said potential modulator; and (d) monitoring the differentiation to determine formation of the second cell type. (a) providing a cell of a first cell type, wherein said first cell type is differentiated to a second cell type via a progenitor cell; (b) deriving said progenitor cell in vitro, by sequentially exposing said first cell type to one or more culture media; (c) exposing the derived progenitor cell to said potential modulator; and (d) monitoring the differentiation to determine formation of the second cell type.
A base station comprising: a signal assignment section that is configured to assign a downlink control information to one or more Physical Resource Block, PRB, sets of a downlink resource, the downlink control information including resource allocation information on Physical Downlink Shared Channel, PDSCH; an identifying section that is configured to identify a Physical Uplink Control Channel, PUCCH, resource, the PUCCH resource being a resource to which an ACK/NACK signal for the PDSCH is assigned; and a signal separating section that is configured to separate the ACK/NACK signal included in the identified PUCCH resource from a received signal from a terminal to which the downlink control information is transmitted, wherein the downlink resource is composed of a plurality of PRB pairs including a first PRB set and a second PRB set, and characterized in that the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and without using an offset value relating to the one or more PRB sets in a case where the downlink control information is mapped over the first PRB set, and the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and with using the offset value in a case where the downlink control information is mapped over the second PRB set. a signal assignment section that is configured to assign a downlink control information to one or more Physical Resource Block, PRB, sets of a downlink resource, the downlink control information including resource allocation information on Physical Downlink Shared Channel, PDSCH; an identifying section that is configured to identify a Physical Uplink Control Channel, PUCCH, resource, the PUCCH resource being a resource to which an ACK/NACK signal for the PDSCH is assigned; and a signal separating section that is configured to separate the ACK/NACK signal included in the identified PUCCH resource from a received signal from a terminal to which the downlink control information is transmitted, wherein the downlink resource is composed of a plurality of PRB pairs including a first PRB set and a second PRB set, and characterized in that the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and without using an offset value relating to the one or more PRB sets in a case where the downlink control information is mapped over the first PRB set, and the PUCCH resource is identified with using a common offset value among the plurality of PRB pairs and with using the offset value in a case where the downlink control information is mapped over the second PRB set.
A tread band for bonding to a bonding surface of a tire being retreaded, the tread band comprising: a primary groove having a top opening that is open to a ground contacting front face of the tread band and a secondary groove having a bottom opening that is open to a back face of the tread band and forms a pair of opposing edges (46A, 46B) along the back face, wherein the groove top of the secondary groove is higher than a groove bottom of the primary groove so that the secondary groove top is opened to the ground contacting front face of the tread band prior to disappearance by wear of the primary groove, wherein the tread band includes an overflow reservoir having a reservoir opening that is open to the back face of the tread band, the reservoir opening being positioned adjacent to one of the pair of edges (46A, 46B) of the secondary groove bottom opening, where the reservoir opening of the overflow reservoir is spaced apart from one of the pair of opposing edges (46A 46B) by a separation distance that is greater than 0, and where the overflow reservoir has a depth extending into the tread from the overflow reservoir opening to a top of the overflow reservoir within the tread, characterized in that the depth of the overflow reservoir measured from the back face to the top of the overflow reservoir is smaller than the depth of the secondary groove measured from the back face to the top of the secondary groove. a primary groove having a top opening that is open to a ground contacting front face of the tread band and a secondary groove having a bottom opening that is open to a back face of the tread band and forms a pair of opposing edges (46A, 46B) along the back face, wherein the groove top of the secondary groove is higher than a groove bottom of the primary groove so that the secondary groove top is opened to the ground contacting front face of the tread band prior to disappearance by wear of the primary groove, wherein the tread band includes an overflow reservoir having a reservoir opening that is open to the back face of the tread band, the reservoir opening being positioned adjacent to one of the pair of edges (46A, 46B) of the secondary groove bottom opening, where the reservoir opening of the overflow reservoir is spaced apart from one of the pair of opposing edges (46A 46B) by a separation distance that is greater than 0, and where the overflow reservoir has a depth extending into the tread from the overflow reservoir opening to a top of the overflow reservoir within the tread, characterized in that the depth of the overflow reservoir measured from the back face to the top of the overflow reservoir is smaller than the depth of the secondary groove measured from the back face to the top of the secondary groove.
An optical coupling arrangement for coupling light (205; 305) between an integrated optical waveguide (210; 310) and a light source (220; 320), whereby said light source is a Vertical-Cavity Surface-Emitting Laser or VCSEL (220; 320), positioned to emit a divergent light beam in a direction perpendicular to a direction of said integrated optical waveguide (210; 310), said optical coupling arrangement comprising: - a refractive surface (240; 340) positioned between said VCSEL (220; 320) and said integrated optical waveguide (210; 310) and shaped to refract and deviate said divergent light beam (205; 305) emitted by said VCSEL (220; 320) over an angle of at least 3 degrees - a substrate (201; 301); - one or more undercladding layers (202; 302); - a core layer (203; 303) comprising said integrated optical waveguide (210; 310); - one or more overcladding layers (204; 304); characterized in that the coupling arrangement further comprising: - a focusing grating (230; 330; 430; 530; 630) designed for coupling light from said light source (220; 320) to said integrated optical waveguide (210; 310), said focusing grating (230; 330; 430; 530; 630) comprising an ellipse arc shaped pattern (431-441; 531-541; 631-638) designed to focus said light (205; 305) over a focusing distance of at least 30 microns and at most 300 microns. - a substrate (201; 301); - one or more undercladding layers (202; 302); - a core layer (203; 303) comprising said integrated optical waveguide (210; 310); - one or more overcladding layers (204; 304); characterized in that the coupling arrangement further comprising: - a focusing grating (230; 330; 430; 530; 630) designed for coupling light from said light source (220; 320) to said integrated optical waveguide (210; 310), said focusing grating (230; 330; 430; 530; 630) comprising an ellipse arc shaped pattern (431-441; 531-541; 631-638) designed to focus said light (205; 305) over a focusing distance of at least 30 microns and at most 300 microns.
A powered toothbrush apparatus with capacitive touch control, the toothbrush apparatus comprising: a motor; a handle portion; a capacitive touch control panel in the handle portion; a plurality of capacitance sensors (320a-c) operably associated with the control panel, each of the plurality of capacitance sensors (320a-c) having a capacitance value that is changed by a user pressing a specific location of the control panel, thereby activating the capacitance sensor (320a-c); and a microprocessor in the handle portion, the microprocessor electrically connected to the plurality of capacitance sensors (320a-c) and the motor, the microprocessor configured to: detect changes in the capacitance values of the plurality of capacitance sensors (320a-c); and change an operating mode of the toothbrush apparatus based on the changes in capacitance values; characterized in that each sensor (320a-c) is arranged in a pair with a corresponding conductive sensor target (325a-c) separated from the sensor by a distance and supported by a deformable actuation portion of control panel which is deformable by the application of finger pressure by the user, wherein changing the distance between the sensor (320a-c) and sensor target (325a-c) by applying finger pressure to the deformable portion changes the capacitance associated with the sensor (320a-c) and sensor target pair (325a-c). a motor; a handle portion; a capacitive touch control panel in the handle portion; a plurality of capacitance sensors (320a-c) operably associated with the control panel, each of the plurality of capacitance sensors (320a-c) having a capacitance value that is changed by a user pressing a specific location of the control panel, thereby activating the capacitance sensor (320a-c); and a microprocessor in the handle portion, the microprocessor electrically connected to the plurality of capacitance sensors (320a-c) and the motor, the microprocessor configured to: detect changes in the capacitance values of the plurality of capacitance sensors (320a-c); and change an operating mode of the toothbrush apparatus based on the changes in capacitance values; characterized in that each sensor (320a-c) is arranged in a pair with a corresponding conductive sensor target (325a-c) separated from the sensor by a distance and supported by a deformable actuation portion of control panel which is deformable by the application of finger pressure by the user, wherein changing the distance between the sensor (320a-c) and sensor target (325a-c) by applying finger pressure to the deformable portion changes the capacitance associated with the sensor (320a-c) and sensor target pair (325a-c).
System for stabilising the pitching of a boat around its longitudinal axis (x), with at least two flat stabilisation elements counteracting the pitching movement by means of water resistance, arranged in the water or directly above the water surface when the system is arranged on a boat floated in water, which are arranged on the port side as well as the starboard side of the boat and relative to a hull of the boat when the system is used as intended, and are moveable in such a way that the stabilisation elements can be displaced outwards in port direction and in starboard direction into a stabilising position, characterised in that the system has a base support, arranged on and fitted to the stern of the boat when used as intended, and the stabilisation elements are designed in the form of two stabilisation plates (4, 5) moveably mounted on the base support and driven in such a way that the first stabilisation plate can be displaced outwards in port direction and the second stabilisation plate in starboard direction into the stabilising position.
A connector (100; 100A; 100B; 100C) for connecting to tubes, in particular to the cooling plate tubes, including a body comprising a first tubular portion, a flange on the outer circumference and at one end of the first tubular portion, the connector (100; 100A; 100B; 100C) comprises at least two circular or tubular seals (22, 24) which are spaced apart and arranged on an inner peripheral surface of the first tubular portion, characterised in that the connector includes a leakage channel which connects a leakage opening and the flange, the leakage opening being disposed between the seals (22, 24), preferably the leakage opening is disposed between two first seals and a second seal.
A key duplicating cutting machine comprising: a housing; a key cutting element located at least partially within said housing; a carriage comprising a first clamp for clamping a master key having a key pattern already cut therein and a second clamp for clamping a key blank to be cut mounted on the carriage; characterised in that it comprises a vacuum port connected to said housing; and a vacuum tube removeably connected to said vacuum port and capable of collecting key shavings created during a key cutting operation, and when said tube is disconnected from said vacuum port, said tube is capable of collecting key shavings on or surrounding said key cutting machine. a housing; a key cutting element located at least partially within said housing; a carriage comprising a first clamp for clamping a master key having a key pattern already cut therein and a second clamp for clamping a key blank to be cut mounted on the carriage; a vacuum port connected to said housing; and a vacuum tube removeably connected to said vacuum port and capable of collecting key shavings created during a key cutting operation, and when said tube is disconnected from said vacuum port, said tube is capable of collecting key shavings on or surrounding said key cutting machine.
Use of a compound of formula, wherein R and R1 - in each case independent of each other denote hydrogen or an organic group having 1 to 15 carbon atoms or - together with the carbon atom to which they are bound, form a ring, as fragrance or flavor. - in each case independent of each other denote hydrogen or an organic group having 1 to 15 carbon atoms - together with the carbon atom to which they are bound, form a ring,
Machine for producing food mixtures in general, in particular soft ice-cream, comprising a first container for preparing and conserving a liquid or semi-liquid mixture from which the ice-cream is obtainable, a second container for processing the ice-cream and dispensing the ice-cream in preset doses, stirring means (MA,21) for moving the product inside the second container, a refrigerating circuit, associated with the second container, in which a refrigerating fluid flows that performs a heat exchange with the second container between an inlet and outlet for cooling the second container, transferring means (MP,11,12,13) for transferring the liquid or semi-liquid mixture from the first to the second container, sensor means for detecting the temperature of the refrigerating fluid exiting the second container and command and control means connected to the stirring means (MA,21), to the refrigerating circuit and to the sensor means, characterised in that said command and control means activates the stirring means (MA,21) and preventively deactivates the refrigerating circuit in the second container for a preset time when the temperature of the refrigerating fluid is below a preset temperature threshold at the outlet from the second container and in that the command and control means is also connected to the transferring means (MP,11,12,13) to activate the transferring means (MP,11,12,13) for a preset time when the temperature of the refrigerating fluid is below said preset threshold.
A system, comprising: a carriage device, wherein the carriage device includes a recoater provided as a roller; a controller configured to: move the recoater coupled to the carriage device over a build area in a first direction; determine that the recoater has reached a first location of the build area when moving in the first direction; reduce a first rate of rotation of the recoater in response to the determination that the recoater has reached the first location; and determine that the recoater has reached a second location of the build area, wherein the second location includes a build-up of the build material caused by a previous leveling process; and the controller is further configured to: lift the recoater over the build-up of the build material in response to the determination that the recoater has reached the second location; and move the recoater over the build-up of the build material at the second location. a carriage device, wherein the carriage device includes a recoater provided as a roller; a controller configured to: move the recoater coupled to the carriage device over a build area in a first direction; determine that the recoater has reached a first location of the build area when moving in the first direction; reduce a first rate of rotation of the recoater in response to the determination that the recoater has reached the first location; and determine that the recoater has reached a second location of the build area, wherein the second location includes a build-up of the build material caused by a previous leveling process; and the controller is further configured to: lift the recoater over the build-up of the build material in response to the determination that the recoater has reached the second location; and move the recoater over the build-up of the build material at the second location. move the recoater coupled to the carriage device over a build area in a first direction; determine that the recoater has reached a first location of the build area when moving in the first direction; reduce a first rate of rotation of the recoater in response to the determination that the recoater has reached the first location; and determine that the recoater has reached a second location of the build area, wherein the second location includes a build-up of the build material caused by a previous leveling process; and the controller is further configured to: lift the recoater over the build-up of the build material in response to the determination that the recoater has reached the second location; and move the recoater over the build-up of the build material at the second location. lift the recoater over the build-up of the build material in response to the determination that the recoater has reached the second location; and move the recoater over the build-up of the build material at the second location.
A control device for controlling a lighting system with sanitizing function, comprising: a printed circuit board connectable to at least one lamp of the lighting system provided with at least one sanitizing source; at least one presence sensor connected to the board by a communication system, for example a wireless communication system; wherein the board is configured so as to disable the sanitizing source or to reduce the power supply to the sanitizing source below a threshold value when the presence sensor detects the presence of users; characterised by - an amperometric sensor connected to the sanitizing source to measure the current in the sanitizing source; - the board is configured so as to disable the sanitizing source or to reduce the power supply to the sanitizing source below a threshold value also when a malfunction is detected in the communication system and the amperometric sensor detects in the sanitizing source a current greater than the threshold value. - an amperometric sensor connected to the sanitizing source to measure the current in the sanitizing source; - the board is configured so as to disable the sanitizing source or to reduce the power supply to the sanitizing source below a threshold value also when a malfunction is detected in the communication system and the amperometric sensor detects in the sanitizing source a current greater than the threshold value.