mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine comprising a body ; a tub which is positioned in the body ; a drum which is disposed in the tub and wherein the washing process is performed by using the washing liquid; at least one sensor which is positioned in the body ; at least one recirculation line which recirculates the washing liquid in the tub during the washing process; characterized by a hollow chamber which is provided on the recirculation line ; and at least one filter which is detachably attached into the chamber and which filters the washing liquid coming from the recirculation line such that the washing liquid is at least partially cleansed of foreign particles such as fibers, lint at least one control unit which is in communication with the sensor so as to exchange data, and which is configured to receive the data measured by the sensor so as to determine if the filter is present in the chamber and to generate an audible and/or visual warning if it is detected that the filter is not present in the chamber and the chamber which is configured to, in case the filter is not present in the chamber , deliver the washing liquid coming from the recirculation line directly to the recirculation line by means of a hole which is in communication with a part of the recirculation line leading to the tub and which is arranged on the base of the chamber or in the vicinity of the base such that the washing liquid coming from the tub through the recirculation line is delivered directly to the part of the recirculation line leading to the tub almost without accumulating in the chamber .
Assembly , comprising a generator and electric motors, for a vehicle air-conditioning or cooling system, comprising: - a compressor intended to be driven by a heat engine , - a top-up electric motor for driving the compressor when the latter is not or cannot be driven by the heat engine, the top-up motor comprising a squirrel cage rotor comprising a stack of magnetic plates comprising notches, the notches receiving aluminium or copper injected under pressure, - a generator with permanent magnets having a shaft which can be driven in rotation by the heat engine , the generator and the top-up electric motor being disposed on this shaft , - one or more electric motors of condensers and/or of evaporators of a vehicle air-conditioning or cooling system, said electric motors being configured to be powered by a direct current, the generator powering the electric motor or motors through a converter configured to supply a direct current, notably a low-voltage controller, the condenser and/or evaporator electric motors being variable-speed motors. - a compressor intended to be driven by a heat engine , - a top-up electric motor for driving the compressor when the latter is not or cannot be driven by the heat engine, the top-up motor comprising a squirrel cage rotor comprising a stack of magnetic plates comprising notches, the notches receiving aluminium or copper injected under pressure, - a generator with permanent magnets having a shaft which can be driven in rotation by the heat engine , the generator and the top-up electric motor being disposed on this shaft , - one or more electric motors of condensers and/or of evaporators of a vehicle air-conditioning or cooling system, said electric motors being configured to be powered by a direct current, the generator powering the electric motor or motors through a converter configured to supply a direct current, notably a low-voltage controller,
A method for producing a composite material, comprising: sintering a metal structure comprising a metal component to obtain a porous metal sintered body; contacting the porous metal sintered body with oxygen following the sintering, and introducing a polymer component into the surface or the inside of the porous metal sintered body, characterized in that the contact with the oxygen is performed while cooling the porous metal sintered body after the sintering process sintering a metal structure comprising a metal component to obtain a porous metal sintered body; contacting the porous metal sintered body with oxygen following the sintering, and introducing a polymer component into the surface or the inside of the porous metal sintered body, characterized in that the contact with the oxygen is performed while cooling the porous metal sintered body after the sintering process
A hand dryer with a housing in which a cavity accessible from outside through a housing opening is formed for accommodating hands to be dried by means of an airflow, and with a device for generating the airflow, as well as a device for generating UV radiation comprising at least one lamp that emits light in the ultraviolet wavelength range, which is arranged in the housing in such a manner that it emits UV radiation into the cavity , characterized in that the device for generating UV radiation is configured in such a manner that the UV radiation emitted into the cavity with a wavelength in the range from 228 to 380 nm has a maximum intensity of 20 % of the intensity of the UV radiation emitted into the cavity with a wavelength in the range from 200 to 380 nm.
A blast furnace operation method including injecting pulverized coal through tuyeres of a blast furnace, the method comprising: adjusting coal containing moisture and volatile matter to form adjusted pulverized coal having a specific surface area within a range of 110 m 2 /g or more and 800 m 2 /g or less, a lower heating value of 27170 kJ/kg or more, and a volatile matter content within a range of 3 mass% or more and 25 mass% or less; and injecting, through the tuyeres of the blast furnace, pulverized coal in which the adjusted pulverized coal is mixed in a mixing ratio of 10 mass% or more. adjusting coal containing moisture and volatile matter to form adjusted pulverized coal having a specific surface area within a range of 110 m 2 /g or more and 800 m 2 /g or less, a lower heating value of 27170 kJ/kg or more, and a volatile matter content within a range of 3 mass% or more and 25 mass% or less; and injecting, through the tuyeres of the blast furnace, pulverized coal in which the adjusted pulverized coal is mixed in a mixing ratio of 10 mass% or more.
A battery degradation determining apparatus for a vehicle, comprising: a charger configured to charge a battery in a constant current mode to a predetermined voltage and to charge the battery in a constant voltage mode when a voltage of the battery reaches the predetermined voltage to a time when an SOC of the battery reaches a predetermined level; a measurer configured to measure a time for maintaining the constant voltage mode; a degradation calculator configured to calculate a degradation degree of the battery using the measured time for maintaining the constant voltage mode; a controller including a processor and a memory configured to store program instructions, wherein the processor is configured to execute the program instructions, the program instructions when executed configured to execute the charger , the measurer and the degradation calculator , if a condition for determining degradation degree of the battery is satisfied; characterized in that the condition for determining degradation of the battery is satisfied when the temperature of the battery is within a room temperature range. a charger configured to charge a battery in a constant current mode to a predetermined voltage and to charge the battery in a constant voltage mode when a voltage of the battery reaches the predetermined voltage to a time when an SOC of the battery reaches a predetermined level; a measurer configured to measure a time for maintaining the constant voltage mode; a degradation calculator configured to calculate a degradation degree of the battery using the measured time for maintaining the constant voltage mode; a controller including a processor and a memory configured to store program instructions, wherein the processor is configured to execute the program instructions, the program instructions when executed configured to execute the charger , the measurer and the degradation calculator , if a condition for determining degradation degree of the battery is satisfied; characterized in that the condition for determining degradation of the battery is satisfied when the temperature of the battery is within a room temperature range.
A method for the production of ceramic products ; the method comprises at least a compacting step, during which, in the area of a work station , a powder material comprising ceramic powders is compacted so as to obtain a layer of compacted powder material; a supplying step, during which a first ceramic powder is fed to a first conveyor assembly so as to determine a base layer and the first conveyor assembly moves the base layer in a conveying direction (D) to a feeding assembly ; a removal step, during which a removal device removes at least part of the first ceramic powder by suction and so as to obtain at least one groove in said base layer ; a deposition step, during which a delivering device deposits, into the groove , a second ceramic powder , which is different from the first ceramic powder , so as to obtain a combined layer; a feeding step, during which the combined layer is fed by dropping, crosswise to the conveying direction (D), by means of the feeding assembly , to a second conveyor assembly so as to form a layer of said powder material ; and a conveying step, during which said layer of said powder material is conveyed, by means of the second conveyor assembly , from the feeding assembly to the work station ; in particular, the supplying step, the conveying step and the feeding step are at least partially simultaneous. a compacting step, during which, in the area of a work station , a powder material comprising ceramic powders is compacted so as to obtain a layer of compacted powder material; a supplying step, during which a first ceramic powder is fed to a first conveyor assembly so as to determine a base layer and the first conveyor assembly moves the base layer in a conveying direction (D) to a feeding assembly ; a removal step, during which a removal device removes at least part of the first ceramic powder by suction and so as to obtain at least one groove in said base layer ; a deposition step, during which a delivering device deposits, into the groove , a second ceramic powder , which is different from the first ceramic powder , so as to obtain a combined layer; a feeding step, during which the combined layer is fed by dropping, crosswise to the conveying direction (D), by means of the feeding assembly , to a second conveyor assembly so as to form a layer of said powder material ; and a conveying step, during which said layer of said powder material is conveyed, by means of the second conveyor assembly , from the feeding assembly to the work station ; in particular, the supplying step, the conveying step and the feeding step are at least partially simultaneous.
Forestry trailer comprising - a steering drawbar extending from a trailer coupling to a pivot bearing , - a hydraulic pump which can be coupled to a towing vehicle via a cardan shaft , - a control block for controlling at least one hydraulically operated unit, and - a hydraulic tank which is connected to the hydraulic pump and the control block , characterized in that the hydraulic pump , the control block and the hydraulic tank are arranged on or in the steering drawbar , such that the hydraulic pump , the control block and the hydraulic tank are arranged so as to be stationary relative to one another even when the steering drawbar is at a steering angle about the pivot bearing . - a steering drawbar extending from a trailer coupling to a pivot bearing , - a hydraulic pump which can be coupled to a towing vehicle via a cardan shaft , - a control block for controlling at least one hydraulically operated unit, and - a hydraulic tank which is connected to the hydraulic pump and the control block ,
A device charging system comprising: a battery module configured to supply a type of power to at least one load device ; and a central charging station in communication with the battery module , the central charging station including a locking mechanism configured to engage a receiver cavity of the battery module and secure the battery module to the central charging station , and an electronic processor configured to: receive an input from a user; authenticate the input; unlock the battery module upon authenticating the input; define a virtual boundary; determine a location of the battery module ; determine, based the location of the battery module , whether the battery module is within the virtual boundary; and transmit a command to the battery module causing the battery module to stop supplying power to the load device when the battery module is not within the virtual boundary. a battery module configured to supply a type of power to at least one load device ; and a central charging station in communication with the battery module , the central charging station including a locking mechanism configured to engage a receiver cavity of the battery module and secure the battery module to the central charging station , and an electronic processor configured to: receive an input from a user; authenticate the input; unlock the battery module upon authenticating the input; define a virtual boundary; determine a location of the battery module ; determine, based the location of the battery module , whether the battery module is within the virtual boundary; and transmit a command to the battery module causing the battery module to stop supplying power to the load device when the battery module is not within the virtual boundary. receive an input from a user; authenticate the input; unlock the battery module upon authenticating the input; define a virtual boundary; determine a location of the battery module ; determine, based the location of the battery module , whether the battery module is within the virtual boundary; and transmit a command to the battery module causing the battery module to stop supplying power to the load device when the battery module is not within the virtual boundary.
Changing device for a multiple stage tool , having: a form-locking and/or force-locking means which is designed to connect the changing device with a support device of a base unit in a form-locking and/or force-locking manner, and a connection means (24, A) which is designed to connect the changing device with the multiple stage tool , characterised in that the changing device has a transfer device which is designed to transfer information and/or energy between a base unit connected to the changing device and a multiple stage tool connected to the changing device , wherein the transfer device is designed to effect an adjustment of the stages of the multiple stage tool by means of the transfer of the information. a form-locking and/or force-locking means which is designed to connect the changing device with a support device of a base unit in a form-locking and/or force-locking manner, and a connection means (24, A) which is designed to connect the changing device with the multiple stage tool , characterised in that the changing device has a transfer device which is designed to transfer information and/or energy between a base unit connected to the changing device and a multiple stage tool connected to the changing device , wherein the transfer device is designed to effect an adjustment of the stages of the multiple stage tool by means of the transfer of the information.
System for date-stamping an event occurring in an automotive vehicle, comprising a plurality of sensors each comprising a relative internal clock , and an electronic control unit ECU comprising an absolute internal clock and configured for communicating with each of the sensors via a communication network , the electronic control unit also comprising: - a data processing module configured for receiving at its input, at each event detected by a sensor, a sensor relative time (Trel_c) originating from the relative clock of the sensor associated with the detected event; - a zero reset module configured for transmitting, at each period (ΔTz), a zero reset signal for all the relative internal clocks , via already existing communication frames of the communication network ; and - a calculation module configured for calculating a sensor absolute time (Tabs_c) as a function of the relative time (Trel_c) received by the processing module and of a zero reset time (Tz) stored by a storage module in the electronic control unit at each zero reset, defining a reference relative time (Trel). - a data processing module configured for receiving at its input, at each event detected by a sensor, a sensor relative time (Trel_c) originating from the relative clock of the sensor associated with the detected event; - a zero reset module configured for transmitting, at each period (ΔTz), a zero reset signal for all the relative internal clocks , via already existing communication frames of the communication network ; and - a calculation module configured for calculating a sensor absolute time (Tabs_c) as a function of the relative time (Trel_c) received by the processing module and of a zero reset time (Tz) stored by a storage module in the electronic control unit at each zero reset, defining a reference relative time (Trel).
A lighting device comprising: at least two light-emitting diode, LED, filaments ; and at least two optical modules , each optical module being arranged in relation to a corresponding one of the LED filaments to receive light emitted by the corresponding one of the LED filaments ; wherein each optical module is configured to collimate the received light and produce a collimated light beam so as to increase the degree of collimation of the light produced by the optical module as compared to the light received by the optical module , wherein the light produced by each optical module is emitted from the lighting device , wherein the optical modules are arranged in relation to each other such that collimated light beams of the respective ones of the optical modules are oriented in different directions, characterised in that each or at least one of the at least two optical modules comprises or is constituted by, or is configured as, a lens. at least two light-emitting diode, LED, filaments ; and at least two optical modules , each optical module being arranged in relation to a corresponding one of the LED filaments to receive light emitted by the corresponding one of the LED filaments ; wherein each optical module is configured to collimate the received light and produce a collimated light beam so as to increase the degree of collimation of the light produced by the optical module as compared to the light received by the optical module , wherein the light produced by each optical module is emitted from the lighting device , wherein the optical modules are arranged in relation to each other such that collimated light beams of the respective ones of the optical modules are oriented in different directions, characterised in that each or at least one of the at least two optical modules comprises or is constituted by, or is configured as, a lens.
An LED with enhanced current spreading structures, comprising: an LED core comprising: an epitaxially grown p-type layer ; an epitaxially grown n-type layer ; and an epitaxially grown active layer between said p-type and n-type layers; a first current spreader layer adjacent to said LED core; a second current spreader layer on said LED core opposite said first current spreader layer; at least one groove etched through said second current spreader layer and said LED core, to said first current spreader layer; a first contact having at least one elongated first conductive finger branching out therefrom on said first current spreader layer within said groove such that current flows from said first contact, into said at least one first conductive finger, across said first current spreader layer, and into said LED core; and a second contact having at least two elongated second conductive fingers branching out therefrom on said second current spreader layer such that current flows from said second contact, into said at least two second conductive fingers, across said second current spreader layer, and into said LED core, wherein said at least two second conductive fingers and said at least one first conductive finger are at a uniform distance from one another for a portion of their lengths, and wherein said groove is between two of said at least two second conductive fingers. an LED core comprising: an epitaxially grown p-type layer ; an epitaxially grown n-type layer ; and an epitaxially grown active layer between said p-type and n-type layers; an epitaxially grown p-type layer ; an epitaxially grown n-type layer ; and an epitaxially grown active layer between said p-type and n-type layers; a first current spreader layer adjacent to said LED core; a second current spreader layer on said LED core opposite said first current spreader layer; at least one groove etched through said second current spreader layer and said LED core, to said first current spreader layer; a first contact having at least one elongated first conductive finger branching out therefrom on said first current spreader layer within said groove such that current flows from said first contact, into said at least one first conductive finger, across said first current spreader layer, and into said LED core; and a second contact having at least two elongated second conductive fingers branching out therefrom on said second current spreader layer such that current flows from said second contact, into said at least two second conductive fingers, across said second current spreader layer, and into said LED core, wherein said at least two second conductive fingers and said at least one first conductive finger are at a uniform distance from one another for a portion of their lengths, and wherein said groove is between two of said at least two second conductive fingers.