mhurhangee/patent-ind-claim-en huggingface dataset:
A system for manufacturing a slab, tile or sheet of artificial stone with a vein effect, the system comprising a distributor device assembled on a robotic device and a substrate layer presenting irregular cavities , characterised in that the distributor device comprises: i. a hopper for storing a filling mixture , the hopper having a top opening and a bottom one , ii. a conveyor belt located underneath the bottom opening of the hopper , and iii. a collector , with a top opening and a bottom one , which collects the filling mixture discharged from the conveyor belt ; and in that the robotic device is capable of moving the distributor device along the irregular cavities present in the substrate layer , and the distributor device is capable of discharging the filling mixture in a localized manner to fill said cavities . i. a hopper for storing a filling mixture , the hopper having a top opening and a bottom one , ii. a conveyor belt located underneath the bottom opening of the hopper , and iii. a collector , with a top opening and a bottom one , which collects the filling mixture discharged from the conveyor belt ;
Method for synchronizing a first drive element which can be rotated about a rotational axis with a second drive element, which rotates about the rotational axis at a target rotational speed , of a drive train of a motor vehicle, in the case of which method a synchronizing force is exerted on a synchronizing device by means of an actuator, as a result of which a rotational speed , at which the first drive element rotates about the rotational axis, is matched to the target rotational speed by means of the synchronizing device, characterized in that the synchronizing force is increased during a first time period (s1), with the result that the rotational speed approaches the target rotational speed , the synchronizing force being reduced continuously during a second time period (s2) which follows the first time period (s1), before the rotational speed corresponds to the target rotational speed .
Motion sensor device , comprising: - a PIR sensor having a plurality of sensor elements arranged adjacent to one another, whose sensor-active surfaces form a detection region of the PIR sensor ; and - an optical system which is configured to image a detection region of the PIR sensor , which detection region comprises detection zones , onto the detection region of the PIR sensor ; - wherein the detection zones in the detection region of the PIR sensor have a spatially periodic arrangement with direction-dependent periodicity according to first and second directions that are orthogonal to one another in the detection region of the motion sensor device , characterized in that, - the optical system is configured to image a plurality of different groups of the detection zones in a superimposed manner via a respective imaging into the detection region of the PIR sensor , wherein a first direction-dependent periodicity of the detection zones of a first group of the plurality of groups and a second direction-dependent periodicity of the detection zones of a second group of the plurality of groups are different, wherein a plurality of detection zones of the first group and a plurality of detection zones of the second group are imaged in a superimposed manner onto one of the sensor elements . - a PIR sensor having a plurality of sensor elements arranged adjacent to one another, whose sensor-active surfaces form a detection region of the PIR sensor ; and - an optical system which is configured to image a detection region of the PIR sensor , which detection region comprises detection zones , onto the detection region of the PIR sensor ; - wherein the detection zones in the detection region of the PIR sensor have a spatially periodic arrangement with direction-dependent periodicity according to first and second directions that are orthogonal to one another in the detection region of the motion sensor device , - the optical system is configured to image a plurality of different groups of the detection zones in a superimposed manner via a respective imaging into the detection region of the PIR sensor , wherein a first direction-dependent periodicity of the detection zones of a first group of the plurality of groups and a second direction-dependent periodicity of the detection zones of a second group of the plurality of groups are different, wherein a plurality of detection zones of the first group and a plurality of detection zones of the second group are imaged in a superimposed manner onto one of the sensor elements .
Method for producing a molded body with gas-filled pores from a metallic material by means of hot-chamber die casting, comprising the following steps: - providing a casting die with a mold cavity , which has a negative shape of a molded body to be produced; - filling the mold cavity with a melt of a metallic material, wherein the mold cavity is filled up to the mold filling end via a gate, which is arranged between the mold cavity and a molded body , and wherein, in doing so, the melt is conveyed to shortly before the gate free of turbulent flows in a first phase, and in a second phase, which follows the first phase, is introduced into the mold cavity with partial formation of turbulent flows; - solidifying the metallic material in the mold cavity ; and - demolding the molded body from the casting die ; wherein a formation of a pore structure with gas-filled pores in the molded body is promoted by carrying out the production of the molded body in the mold cavity to be free of a holding-pressure phase or with a shortened holding-pressure phase that is shorter than a solidification time of the melt in the gate. - providing a casting die with a mold cavity , which has a negative shape of a molded body to be produced; - filling the mold cavity with a melt of a metallic material, wherein the mold cavity is filled up to the mold filling end via a gate, which is arranged between the mold cavity and a molded body , and wherein, in doing so, the melt is conveyed to shortly before the gate free of turbulent flows in a first phase, and in a second phase, which follows the first phase, is introduced into the mold cavity with partial formation of turbulent flows; - solidifying the metallic material in the mold cavity ; and - demolding the molded body from the casting die ;
A thatch panel for a thatch roof, comprising: (a) a perforated louvered drainage and drying tray with louvers at the bottom surface of the tray and perforations distributed over the tray bottom, wherein the perforated louvered drainage and drying tray has sides defined orthogonal with respect to a roof line, wherein the bottom surface of the perforated louvered drainage and drying tray is intended to face barrier which overlays a roof panel , wherein the perforated louvered drainage and drying tray and the barrier are at a distance suitable for airflow in between the two of them; and (b) an insert thatch bale compacted, bonded and inserted in the perforated louvered drainage and drying tray wherein the bottom surface of the insert thatch bale faces the bottom surface of the perforated louvered drainage and drying tray, and wherein the side surfaces of the insert thatch bale face the sides of the perforated louvered drainage and drying tray . (a) a perforated louvered drainage and drying tray with louvers at the bottom surface of the tray and perforations distributed over the tray bottom, wherein the perforated louvered drainage and drying tray has sides defined orthogonal with respect to a roof line, wherein the bottom surface of the perforated louvered drainage and drying tray is intended to face barrier which overlays a roof panel , wherein the perforated louvered drainage and drying tray and the barrier are at a distance suitable for airflow in between the two of them; and (b) an insert thatch bale compacted, bonded and inserted in the perforated louvered drainage and drying tray wherein the bottom surface of the insert thatch bale faces the bottom surface of the perforated louvered drainage and drying tray, and wherein the side surfaces of the insert thatch bale face the sides of the perforated louvered drainage and drying tray .
An antenna, comprising a first radiator and a first capacitor structure , wherein: a first end of the first radiator is electrically connected to a signal feed end of a printed circuit board by means of the first capacitor structure , a second end of the first radiator is electrically connected to a ground end of the printed circuit board, the first radiator , the first capacitor structure , the signal feed end, and the ground end form a first antenna, configured to generate a first resonance frequency (f1), and an electrical length of the first radiator is less than or equal to one eighth of a wavelength corresponding to the first resonance frequency; wherein the antenna further comprises a second capacitor structure , a first end of the second capacitor structure is electrically connected to the first radiator between the first end and the second end , and a second end of the second capacitor structure is electrically connected to the ground end of the printed circuit board, wherein the first radiator , the second capacitor structure , the signal feed end , and the ground end are configured to generate a second resonance frequency (f2); characterized in that the antenna further comprises at least one second radiator , and a first end of the second radiator is electrically connected to the first end of the first radiator , a second end of the second radiator is an open end, and wherein the second radiator is configured to generate a third resonance frequency. a first end of the first radiator is electrically connected to a signal feed end of a printed circuit board by means of the first capacitor structure , a second end of the first radiator is electrically connected to a ground end of the printed circuit board, the first radiator , the first capacitor structure , the signal feed end, and the ground end form a first antenna, configured to generate a first resonance frequency (f1), and an electrical length of the first radiator is less than or equal to one eighth of a wavelength corresponding to the first resonance frequency; wherein the antenna further comprises a second capacitor structure , a first end of the second capacitor structure is electrically connected to the first radiator between the first end and the second end , and a second end of the second capacitor structure is electrically connected to the ground end of the printed circuit board, wherein the first radiator , the second capacitor structure , the signal feed end , and the ground end are configured to generate a second resonance frequency (f2); characterized in that the antenna further comprises at least one second radiator , and a first end of the second radiator is electrically connected to the first end of the first radiator , a second end of the second radiator is an open end, and wherein the second radiator is configured to generate a third resonance frequency.
An injector for delivering liquid, the injector comprising: a body having a proximal end , an opposing distal end , a longitudinal axis (L) extending therebetween, and a track follower adjacent to the proximal end; a plunger disposed at least partially within the body and movable with respect to the body along the longitudinal axis; an actuator positioned at the proximal end of the body and operably connected to the plunger, the actuator comprising a track including a first portion and a second portion, the first portion limiting travel of the actuator along the longitudinal axis to deliver a first predetermined amount of the liquid, the second portion limiting travel of the actuator along the longitudinal axis to deliver a second predetermined amount of the liquid, the first predetermined amount being different than the second predetermined amount, the actuator being positionable to selectively control displacement of the plunger and a piston pursuant to the first portion or the second portion of the track , and characterised in that the injector comprises a directionally limited sliding arrangement between the actuator and the plunger, wherein when the actuator is pulled outward to prepare for a dose being administered, the actuator is able to slide along the plunger without causing the plunger to be withdrawn or moved away from the piston, while when the actuator is pressed inward to deliver the dose, the plunger is fixed to the actuator such that movement of the actuator drives the plunger forward a body having a proximal end , an opposing distal end , a longitudinal axis (L) extending therebetween, and a track follower adjacent to the proximal end; a plunger disposed at least partially within the body and movable with respect to the body along the longitudinal axis; an actuator positioned at the proximal end of the body and operably connected to the plunger, the actuator comprising a track including a first portion and a second portion, the first portion limiting travel of the actuator along the longitudinal axis to deliver a first predetermined amount of the liquid, the second portion limiting travel of the actuator along the longitudinal axis to deliver a second predetermined amount of the liquid, the first predetermined amount being different than the second predetermined amount, the actuator being positionable to selectively control displacement of the plunger and a piston pursuant to the first portion or the second portion of the track , and characterised in that the injector comprises a directionally limited sliding arrangement between the actuator and the plunger, wherein when the actuator is pulled outward to prepare for a dose being administered, the actuator is able to slide along the plunger without causing the plunger to be withdrawn or moved away from the piston, while when the actuator is pressed inward to deliver the dose, the plunger is fixed to the actuator such that movement of the actuator drives the plunger forward
An accessory latch comprising: a rotary handle ; and a latch state indication window defined by the rotary handle, wherein the latch state indication window provides visibility to a first color-coded indicator when the rotary handle is in a latched orientation and a second color-coded indicator when the rotary handle is in an unlatched orientation; and characterized by further comprising: at least two detents disposed on a fixed central column; one or more detent posts disposed on the rotary handle, at least one of the one or more detent posts configured to engage a first detent of the at least two detents when the rotary handle is in the latched orientation, and a second detent of the at least two detents when the rotary handle is in the unlatched orientation. a rotary handle ; and a latch state indication window defined by the rotary handle, wherein the latch state indication window provides visibility to a first color-coded indicator when the rotary handle is in a latched orientation and a second color-coded indicator when the rotary handle is in an unlatched orientation; and characterized by further comprising: at least two detents disposed on a fixed central column; one or more detent posts disposed on the rotary handle, at least one of the one or more detent posts configured to engage a first detent of the at least two detents when the rotary handle is in the latched orientation, and a second detent of the at least two detents when the rotary handle is in the unlatched orientation.
A fan having a temperature detecting function comprising: a fan frame having an air inlet and an air outlet ; an impeller rotatably arranged between the air inlet and the air outlet ; an extension member having one end adjacent to the fan frame ; and a temperature sensor arranged at one of the air inlet and the air outlet via the extension member , wherein the temperature sensor is arranged in a position where an entire surface of the temperature sensor is fully exposed to the ambient air, and the fan further comprises a restricting portion arranged at the one of the air inlet or the air outlet , wherein the restricting portion is located between the extension member and the impeller and is adapted to prevent the extension member from making contact with the impeller , wherein the temperature sensor is fixed at the air inlet or the air outlet via the extension member and will not make contact with the restricting portion . a fan frame having an air inlet and an air outlet ; an impeller rotatably arranged between the air inlet and the air outlet ; an extension member having one end adjacent to the fan frame ; and a temperature sensor arranged at one of the air inlet and the air outlet via the extension member , wherein the temperature sensor is arranged in a position where an entire surface of the temperature sensor is fully exposed to the ambient air, and the fan further comprises a restricting portion arranged at the one of the air inlet or the air outlet , wherein the restricting portion is located between the extension member and the impeller and is adapted to prevent the extension member from making contact with the impeller , wherein the temperature sensor is fixed at the air inlet or the air outlet via the extension member and will not make contact with the restricting portion .
A gas valve unit , comprising a pipe and at least one valve arranged to the pipe , and a gas tight enclosure , enclosing the pipe and the at least one valve , and being provided with an inlet and an outlet , in which gas valve unit the pipe is arranged to extend inside the enclosure from the inlet of the enclosure to the outlet of the enclosure , characterized in that - the valve comprising a drive shaft having a first axis of rotation , and the valve is operable by subjecting a rotational movement to the drive shaft of the valve , - an actuating shaft having a second axis of rotation , - a shaft lead-through unit releasably connected to the enclosure in gas tight manner, into which shaft lead-through unit the drive shaft is arranged so as to extend from inside to outside of the enclosure , and - the drive shaft and the actuating shaft are arranged in force transmission connection with each other by a coupling which is configured to allow mutual lateral displacement of the ends of the drive shaft and the actuating shaft . - the valve comprising a drive shaft having a first axis of rotation , and the valve is operable by subjecting a rotational movement to the drive shaft of the valve , - an actuating shaft having a second axis of rotation , - a shaft lead-through unit releasably connected to the enclosure in gas tight manner, into which shaft lead-through unit the drive shaft is arranged so as to extend from inside to outside of the enclosure , and - the drive shaft and the actuating shaft are arranged in force transmission connection with each other by a coupling which is configured to allow mutual lateral displacement of the ends of the drive shaft and the actuating shaft .
A method for wireless communications according to an IEEE 802.11 standard by a first apparatus, comprising: setting at least one bit in a physical layer convergence protocol, PLCP, header of a protocol data unit, PPDU, to indicate the type of response expected from a second apparatus responsive to a transmitted PPDU transmitting the PPDU to the second apparatus; receiving a response from the second apparatus when a response is expected, wherein the type of response is selected at the second apparatus based at least on the at least one bit set in the PLCP header of the PPDU; and wherein the selection of the type of response is performed from a group of types including at least one first type that indicates the response to be sent by the second apparatus is a null data packet, NDP, and at least one second type that indicates no response from the second apparatus is expected; and wherein the NDP consists of only a PLCP header. setting at least one bit in a physical layer convergence protocol, PLCP, header of a protocol data unit, PPDU, to indicate the type of response expected from a second apparatus responsive to a transmitted PPDU transmitting the PPDU to the second apparatus; receiving a response from the second apparatus when a response is expected, wherein the type of response is selected at the second apparatus based at least on the at least one bit set in the PLCP header of the PPDU; and wherein the selection of the type of response is performed from a group of types including at least one first type that indicates the response to be sent by the second apparatus is a null data packet, NDP, and at least one second type that indicates no response from the second apparatus is expected; and wherein the NDP consists of only a PLCP header.
Tyre rubber composition based on at least one diene elastomer, an inorganic filler as reinforcing filler, a coupling agent providing the bonding between the inorganic filler and the diene elastomer, characterized in that the coupling agent is an azosilane compound is chosen from the following compounds : (EtO)(RO) 2 Si-CH 2 -CH 2 -CH 2 -NH-CO-N=N-CO-NH-CH 2 -CH 2 -CH 2 -Si(EtO)(RO) 2 , (RO)(EtO) 2 Si-CH 2 -CH 2 -CH 2 -NH-CO-N=N-CO-NH-CH 2 -CH 2 -CH 2 -Si(RO)(EtO) 2 wherein Et=ethyl and R=C 13 H 27 (OCH 2 CH 2 ) 5 .
A developing cartridge comprising: a developing roller rotatable about a first axis extending in an axial direction; a coupling for rotating the developing roller , the coupling being rotatable about a second axis extending in the axial direction; a shaft rotatably supporting the coupling ; and a clutch rotatable together with the coupling about the shaft in a case where the coupling rotates in a first rotational direction (D1), and characterized in that in a case where the coupling rotates in a second rotational direction (D2) opposite to the first rotational direction (D1), the clutch engages with a portion (FS1) of the shaft and the clutch and the coupling do not rotate. a developing roller rotatable about a first axis extending in an axial direction; a coupling for rotating the developing roller , the coupling being rotatable about a second axis extending in the axial direction; a shaft rotatably supporting the coupling ; and a clutch rotatable together with the coupling about the shaft in a case where the coupling rotates in a first rotational direction (D1), and characterized in that
A game board , comprising: a surface adapted to receive a board game overlay ; a base comprising a rotatable mount for the game board; a rotation sensor operable to detect the relative rotation of the game board to the base; a detector array adapted to detect the respective positions of a plurality of game pieces placed on top of the board game overlay; and a transmitter adapted to transmit, to an entertainment device, data indicating the respective positions and data indicating the detected relative rotation of the game board to the base. a surface adapted to receive a board game overlay ; a base comprising a rotatable mount for the game board; a rotation sensor operable to detect the relative rotation of the game board to the base; a detector array adapted to detect the respective positions of a plurality of game pieces placed on top of the board game overlay; and a transmitter adapted to transmit, to an entertainment device, data indicating the respective positions and data indicating the detected relative rotation of the game board to the base.
A loudspeaker controller for controlling a loudspeaker , configured to: determine time-varying impedance information of the loudspeaker based on a loudspeaker voltage and a measure of a loudspeaker current; provide for control of the loudspeaker in accordance with said time-varying impedance information; introduce a measurement signal of a predetermined frequency into an input signal for the loudspeaker; and measure the loudspeaker current of the loudspeaker at said predetermined frequency, the controller configured to provide for control of the loudspeaker by controlling the gain of an amplifier configured to supply the input signal with the measurement signal to the loudspeaker .