mhurhangee/patent-ind-claim-en huggingface dataset:
A corrugator for an extrusion system for shaping a tubular plastics product , having a multiplicity of mold blocks , a guide track along which the mold blocks in the operation of the corrugator are guided in each case in pairs from a starting region of the guide track toward an outlet region of the guide track , two first return tracks which are disposed on both sides of the guide track and along which the mold blocks in the operation of the corrugator are guided from the outlet region toward the starting region , and two second return track which are likewise disposed on both sides of the guide track and with the aid of which individual mold blocks in the operation of the corrugator are capable of being extracted from the first return track and/or inserted into the latter, characterized in that the two second return tracks are disposed between the guide track and the first return tracks . a multiplicity of mold blocks , a guide track along which the mold blocks in the operation of the corrugator are guided in each case in pairs from a starting region of the guide track toward an outlet region of the guide track , two first return tracks which are disposed on both sides of the guide track and along which the mold blocks in the operation of the corrugator are guided from the outlet region toward the starting region , and two second return track which are likewise disposed on both sides of the guide track and with the aid of which individual mold blocks in the operation of the corrugator are capable of being extracted from the first return track and/or inserted into the latter, characterized in that the two second return tracks are disposed between the guide track and the first return tracks .
A method comprising: a first evaporative concentration process in which a radioactive solution formed by dissolving at least a radioactive metal nuclide in an acidic aqueous solution is heated to evaporate a solvent in the radioactive solution so as to obtain a concentrated liquid containing the radioactive metal nuclide; characterised by a second evaporative concentration process in which a low-boiling organic solvent having a lower boiling point than water is added to the concentrated liquid, and the concentrated liquid is heated to induce azeotropic boiling of the concentrated liquid and the low-boiling organic solvent so as to obtain an evaporative concentrate of the radioactive metal nuclide. a first evaporative concentration process in which a radioactive solution formed by dissolving at least a radioactive metal nuclide in an acidic aqueous solution is heated to evaporate a solvent in the radioactive solution so as to obtain a concentrated liquid containing the radioactive metal nuclide; characterised by a second evaporative concentration process in which a low-boiling organic solvent having a lower boiling point than water is added to the concentrated liquid, and the concentrated liquid is heated to induce azeotropic boiling of the concentrated liquid and the low-boiling organic solvent so as to obtain an evaporative concentrate of the radioactive metal nuclide.
Aerosol-generating device comprising a device housing comprising a cavity having an internal surface forming part of a receiving chamber for receiving at least a portion of an aerosol-generating article , further comprising a plurality of retention ribs extending into the cavity and being configured for contacting at least a portion of the aerosol-generating article, characterized in that the retention ribs are arranged along an internal sidewall of the receiving chamber in an oblique manner relative to a longitudinal axis of the receiving chamber, and in that the ribs of the plurality of retention ribs are distanced from each other, thereby defining airflow passages in between neighbouring retention ribs.
A device for decontaminating a hollow object defining an internal cavity , including: - a decontamination unit , the decontamination unit including a holder intended to receive and position the hollow object , a decontamination member intended to be introduced into the internal cavity , and a mechanism for the relative displacement of the decontamination member relative to the holder able to displace the decontamination member and the holder relatively the one in relation to the other between a rest position intended for positioning the hollow object in the holder and a decontamination position, in which the decontamination member is intended to be inserted into the internal cavity of the hollow object received in the holder - a control unit able to activate the decontamination member in the decontamination position, characterized by : - a protective enclosure defining an inner space containing at least a portion of the decontamination member and the holder at least in the decontamination position, the enclosure defining an access passage to the inner space and at least one wall for obturating the access passage the closure wall and the access passage being movable, the one relative to the other, between an open configuration of the access passage which the closure wall is able to occupy in the rest position of the decontamination member and a closed configuration of the access passage which the closure wall occupies in the decontamination position of the decontamination member . - a decontamination unit , the decontamination unit including a holder intended to receive and position the hollow object , a decontamination member intended to be introduced into the internal cavity , and a mechanism for the relative displacement of the decontamination member relative to the holder able to displace the decontamination member and the holder relatively the one in relation to the other between a rest position intended for positioning the hollow object in the holder and a decontamination position, in which the decontamination member is intended to be inserted into the internal cavity of the hollow object received in the holder - a control unit able to activate the decontamination member in the decontamination position, - a protective enclosure defining an inner space containing at least a portion of the decontamination member and the holder at least in the decontamination position, the enclosure defining an access passage to the inner space and at least one wall for obturating the access passage the closure wall and the access passage being movable, the one relative to the other, between an open configuration of the access passage which the closure wall is able to occupy in the rest position of the decontamination member and a closed configuration of the access passage which the closure wall occupies in the decontamination position of the decontamination member .
A method for processing a sound hole of a speaker, the method comprising: detecting (S11, S33) whether the sound hole of the speaker is blocked, and prompting a user not to block the sound hole of the speaker by hands; and playing (S12, S34) a built-in audio source file, thereby driving a preset vibration device to vibrate according to a set vibration intensity in order to clear foreign matter blocking the sound hole when it is detected that the sound hole of the speaker is blocked; characterized by the method further comprising: reperforming (S35) the detecting whether the sound hole of the speaker is blocked and the prompting the user not to block the sound hole of the speaker by hands after a preset time period, wherein the preset time period is not less than a playing duration of the built-in audio source file; and prompting (S36) the user to repair when the sound hole of the speaker continues to be blocked. detecting (S11, S33) whether the sound hole of the speaker is blocked, and prompting a user not to block the sound hole of the speaker by hands; and playing (S12, S34) a built-in audio source file, thereby driving a preset vibration device to vibrate according to a set vibration intensity in order to clear foreign matter blocking the sound hole when it is detected that the sound hole of the speaker is blocked; characterized by the method further comprising: reperforming (S35) the detecting whether the sound hole of the speaker is blocked and the prompting the user not to block the sound hole of the speaker by hands after a preset time period, wherein the preset time period is not less than a playing duration of the built-in audio source file; and prompting (S36) the user to repair when the sound hole of the speaker continues to be blocked. reperforming (S35) the detecting whether the sound hole of the speaker is blocked and the prompting the user not to block the sound hole of the speaker by hands after a preset time period, wherein the preset time period is not less than a playing duration of the built-in audio source file; and prompting (S36) the user to repair when the sound hole of the speaker continues to be blocked.
A wireless power transfer, WPT, system , comprising: an electromagnetic induction charger operable to emit electromagnetic radiation into an environment of the charger; motion sensor equipment operable to generate an output indicating whether or not a moving object is present in the environment; and a controller configured to: receive the output from the motion sensor equipment; determine whether the received output indicates that a moving object is present in a predefined region of the environment; and in response to a positive determination, prevent the charger from emitting the electromagnetic radiation, characterized in that : the predefined region extends in a given direction from the charger to an outer boundary that is set at a predefined distance from the charger, wherein the controller is configured to modify the predefined distance based on an intensity of the electromagnetic radiation emitted by the charger and/or based on a power output of the charger. an electromagnetic induction charger operable to emit electromagnetic radiation into an environment of the charger; motion sensor equipment operable to generate an output indicating whether or not a moving object is present in the environment; and a controller configured to: receive the output from the motion sensor equipment; determine whether the received output indicates that a moving object is present in a predefined region of the environment; and in response to a positive determination, prevent the charger from emitting the electromagnetic radiation, receive the output from the motion sensor equipment; determine whether the received output indicates that a moving object is present in a predefined region of the environment; and in response to a positive determination, prevent the charger from emitting the electromagnetic radiation, characterized in that : the predefined region extends in a given direction from the charger to an outer boundary that is set at a predefined distance from the charger, wherein the controller is configured to modify the predefined distance based on an intensity of the electromagnetic radiation emitted by the charger and/or based on a power output of the charger. the predefined region extends in a given direction from the charger to an outer boundary that is set at a predefined distance from the charger, wherein the controller is configured to modify the predefined distance based on an intensity of the electromagnetic radiation emitted by the charger and/or based on a power output of the charger.
A method used in a terminal device, the method comprising: obtaining (S410) a pattern for UL transmission to a base station, the pattern being specific to the terminal device and specifying a plurality of time points for transmitting a UL signal to the base station, wherein said obtaining (S410) the pattern for the UL transmission comprises: receiving (S411) an indication of the pattern from the base station; and determining (S412) the pattern from a set of predefined patterns based on the indication; and transmitting (S420) the UL signal to the base station based on the pattern, wherein said transmitting (S420) the UL signal to the base station based on the pattern comprises: determining (S421) one time point from the plurality of time points based on UL transmission grant for the terminal device; performing a Channel Clearance Assessment (CCA) (S422) during a predetermined time period immediately preceding the determined time point; and transmitting (S423) the UL signal to the base station at the determined time point if the CCA succeeds. obtaining (S410) a pattern for UL transmission to a base station, the pattern being specific to the terminal device and specifying a plurality of time points for transmitting a UL signal to the base station, wherein said obtaining (S410) the pattern for the UL transmission comprises: receiving (S411) an indication of the pattern from the base station; and determining (S412) the pattern from a set of predefined patterns based on the indication; and transmitting (S420) the UL signal to the base station based on the pattern, receiving (S411) an indication of the pattern from the base station; and determining (S412) the pattern from a set of predefined patterns based on the indication; and transmitting (S420) the UL signal to the base station based on the pattern, wherein said transmitting (S420) the UL signal to the base station based on the pattern comprises: determining (S421) one time point from the plurality of time points based on UL transmission grant for the terminal device; performing a Channel Clearance Assessment (CCA) (S422) during a predetermined time period immediately preceding the determined time point; and transmitting (S423) the UL signal to the base station at the determined time point if the CCA succeeds. determining (S421) one time point from the plurality of time points based on UL transmission grant for the terminal device; performing a Channel Clearance Assessment (CCA) (S422) during a predetermined time period immediately preceding the determined time point; and transmitting (S423) the UL signal to the base station at the determined time point if the CCA succeeds.
Power equipment , comprising: a main body ; a work unit provided on the main body; a work motor that is configured to drive the work unit; a tilt angle detection means that is configured to detect a tilt angle of the main body; and a control unit that is configured to drive-control the work motor, characterised in that the control unit is configured to perform prohibition control that prohibits driving of the work motor when the tilt angle becomes greater than or equal to a predetermined tilt angle determination value and a change rate of the tilt angle becomes greater than or equal to a predetermined change rate determination value, the tilt angle detection means is an acceleration sensor that is configured to output a signal corresponding to an acceleration, and the control unit is configured to perform low-pass filtering process on the signal from the acceleration sensor to remove at least a portion of the signal corresponding to a dynamic component of the acceleration, and to calculate the tilt angle based on the signal that has been subjected to the filtering process, wherein the power equipment further comprises: a travel motor that is configured to drive a wheel provided on the main body; and an operation input means that is configured to input a signal corresponding to an operation by an operator to the control unit , wherein the control unit is configured to drive-control the travel motor according to the signal from the operation input means , and to change a filter (A, B) used in the low-pass filtering process according to the signal from the operation input means . a main body ; a work unit provided on the main body; a work motor that is configured to drive the work unit; a tilt angle detection means that is configured to detect a tilt angle of the main body; and a control unit that is configured to drive-control the work motor, characterised in that the control unit is configured to perform prohibition control that prohibits driving of the work motor when the tilt angle becomes greater than or equal to a predetermined tilt angle determination value and a change rate of the tilt angle becomes greater than or equal to a predetermined change rate determination value, the tilt angle detection means is an acceleration sensor that is configured to output a signal corresponding to an acceleration, and the control unit is configured to perform low-pass filtering process on the signal from the acceleration sensor to remove at least a portion of the signal corresponding to a dynamic component of the acceleration, and to calculate the tilt angle based on the signal that has been subjected to the filtering process, wherein the power equipment further comprises: a travel motor that is configured to drive a wheel provided on the main body; and an operation input means that is configured to input a signal corresponding to an operation by an operator to the control unit , wherein the control unit is configured to drive-control the travel motor according to the signal from the operation input means , and to change a filter (A, B) used in the low-pass filtering process according to the signal from the operation input means .
Method for purifying diesel engine exhaust gases having the following method steps: a. passing the exhaust gas to be purified through a diesel oxidation catalyst (DOC) for oxidizing gaseous residual hydrocarbons (HC) and carbon monoxide (CO) to carbon dioxide (CO 2 ) and for oxidizing at least a proportion of the nitrogen monoxide (NO) contained in the exhaust gas to nitrogen dioxide (NO 2 ); b. addition of aqueous urea solution (AUS) preconditioned at the engine, i.e. heated to 80 - 90°C, to the exhaust gas resulting from step a.) and liberation of ammonia from the urea added by thermolysis and hydrolysis; c. passing the exhaust gas resulting from step b.) through a particulate filter activated for SCR catalysis (SDPF) in order to reduce the level of the particulates contained in the exhaust gas and the nitrogen oxides contained in the exhaust gas; d. passing the exhaust gas resulting from step c.) through a selective ammonia oxidation catalyst (ASC) in order to reduce residual ammonia contents, wherein the AUS is situated in an AUS tank arranged in the region of the internal combustion engine and is heated by means of a heat exchanger which is integrated into the crankcase or into the cylinder head of the internal combustion engine, and wherein the AUS is conveyed by means of a liquid delivery pump into the region of the cooling-water-carrying region of the crankcase or of the cylinder head and is heated by means of the heat exchanger . a. passing the exhaust gas to be purified through a diesel oxidation catalyst (DOC) for oxidizing gaseous residual hydrocarbons (HC) and carbon monoxide (CO) to carbon dioxide (CO 2 ) and for oxidizing at least a proportion of the nitrogen monoxide (NO) contained in the exhaust gas to nitrogen dioxide (NO 2 ); b. addition of aqueous urea solution (AUS) preconditioned at the engine, i.e. heated to 80 - 90°C, to the exhaust gas resulting from step a.) and liberation of ammonia from the urea added by thermolysis and hydrolysis; c. passing the exhaust gas resulting from step b.) through a particulate filter activated for SCR catalysis (SDPF) in order to reduce the level of the particulates contained in the exhaust gas and the nitrogen oxides contained in the exhaust gas; d. passing the exhaust gas resulting from step c.) through a selective ammonia oxidation catalyst (ASC) in order to reduce residual ammonia contents, wherein the AUS is situated in an AUS tank arranged in the region of the internal combustion engine and is heated by means of a heat exchanger which is integrated into the crankcase or into the cylinder head of the internal combustion engine, and wherein the AUS is conveyed by means of a liquid delivery pump into the region of the cooling-water-carrying region of the crankcase or of the cylinder head and is heated by means of the heat exchanger .
A window control system, wherein: the window control system is configured to control the optical state of one or more optically switchable windows and to interact directly, by way of an application programming interface, API, and not through a building management system, with at least one other system selected from the group consisting of a lighting system, a heating, ventilation and air conditioning, HVAC, system, a security system, and a home appliance control system.
A diffractive pigment blend comprising: a plurality of groups of all-dielectric diffractive pigment flakes , wherein the all-dielectric diffractive pigment flakes of each group each include a plurality of dielectric layers including a core layer and one or more encapsulating layers, for providing a background color, and wherein at least one of the one or more dielectric layers includes a diffractive structure for providing a diffractive effect; wherein each group of all-dielectric diffractive pigment flakes provides a different diffractive effect; and wherein the diffractive pigment blend provides a combined diffractive effect that is a combination of the different diffractive effects provided by the groups of all-dielectric diffractive pigment flakes ; characterised in that the diffractive pigment blend is a color-neutral composition, and that each group of the all-dielectric diffractive pigment flakes has an encapsulated structure including alternating layers of high-index dielectric material (H) and low-index dielectric material (L), and a different physical thickness of the core layer , and wherein the core layer in each group includes a diffraction grating. a plurality of groups of all-dielectric diffractive pigment flakes , wherein the all-dielectric diffractive pigment flakes of each group each include a plurality of dielectric layers including a core layer and one or more encapsulating layers, for providing a background color, and wherein at least one of the one or more dielectric layers includes a diffractive structure for providing a diffractive effect; wherein each group of all-dielectric diffractive pigment flakes provides a different diffractive effect; and wherein the diffractive pigment blend provides a combined diffractive effect that is a combination of the different diffractive effects provided by the groups of all-dielectric diffractive pigment flakes ; characterised in that the diffractive pigment blend is a color-neutral composition, and that each group of the all-dielectric diffractive pigment flakes has an encapsulated structure including alternating layers of high-index dielectric material (H) and low-index dielectric material (L), and a different physical thickness of the core layer , and wherein the core layer in each group includes a diffraction grating.