mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling an autonomous mobile robot using a human-machine interface, wherein the robot has a navigation module with an electronic map and with at least one sensor for navigation and orientation in the surroundings, and wherein robot and human-machine interface can exchange data via a communication link; the method comprising: displaying the map on the human-machine interface ; marking a point in the map by a user; automatically selecting a specific area that depends on the selected point, characterized in that the specific area has a predefined basic shape, a predefined size and a predefined orientation, wherein after selection of the specific area at least one of the following parameters predefined basic shape, predefined size and predefined orientation based on first information stored in the electronic map is automatically adjusted; and then automatically controlling the robot to start machining the adjusted specific area. wherein the robot has a navigation module with an electronic map and with at least one sensor for navigation and orientation in the surroundings, and wherein robot and human-machine interface can exchange data via a communication link; the method comprising: displaying the map on the human-machine interface ; marking a point in the map by a user; automatically selecting a specific area that depends on the selected point, characterized in that the specific area has a predefined basic shape, a predefined size and a predefined orientation, wherein after selection of the specific area at least one of the following parameters predefined basic shape, predefined size and predefined orientation based on first information stored in the electronic map is automatically adjusted; and then automatically controlling the robot to start machining the adjusted specific area. displaying the map on the human-machine interface ; marking a point in the map by a user; automatically selecting a specific area that depends on the selected point, characterized in that the specific area has a predefined basic shape, a predefined size and a predefined orientation, wherein after selection of the specific area at least one of the following parameters predefined basic shape, predefined size and predefined orientation based on first information stored in the electronic map is automatically adjusted; and then automatically controlling the robot to start machining the adjusted specific area.
A vehicle interior system frame comprising: a first frame surface, a second frame surface opposing the first frame surface, a frame edge with a frame thickness defined as the distance between the first frame surface and the second frame surface, a frame width defined as a first dimension of one of the first or second frame surfaces orthogonal to the frame thickness, and a frame length defined as a second dimension of one of the first or second frame surfaces orthogonal to both the frame thickness and the frame width; a frame opening extending from the first frame surface to the second frame surface and surrounded by an interior surface connecting the first frame surface and the second frame surface, the frame opening for receiving a display module that is optionally curved; and wherein at least a portion of the first frame surface has a frame radius of curvature of about 20 mm or greater, wherein the first frame surface is attachable to a glass substrate having a width that is greater than the frame width or a length that is greater than the frame length, and wherein a display module is disposed in the frame opening, the display module has a display width that is less than the frame width or a display length that is less than the frame length. a first frame surface, a second frame surface opposing the first frame surface, a frame edge with a frame thickness defined as the distance between the first frame surface and the second frame surface, a frame width defined as a first dimension of one of the first or second frame surfaces orthogonal to the frame thickness, and a frame length defined as a second dimension of one of the first or second frame surfaces orthogonal to both the frame thickness and the frame width; a frame opening extending from the first frame surface to the second frame surface and surrounded by an interior surface connecting the first frame surface and the second frame surface, the frame opening for receiving a display module that is optionally curved; and wherein at least a portion of the first frame surface has a frame radius of curvature of about 20 mm or greater, wherein the first frame surface is attachable to a glass substrate having a width that is greater than the frame width or a length that is greater than the frame length, and wherein a display module is disposed in the frame opening, the display module has a display width that is less than the frame width or a display length that is less than the frame length.
A method of manufacturing an electrochemical sensor , the method comprising: providing a plurality of electrodes over a substrate comprising diffusion holes , the plurality of electrodes having a hydrophobic coating and covering the diffusion holes extending cylindrically through the thickness of the substrate ; printing a transition layer over the plurality of electrodes , the transition layer comprising at least a first mixture of a water immiscible liquid and a hydrophilic inert substance over the plurality of electrodes ; and applying an electrolyte layer comprising at least a second mixture of an acid solution and a solid polymer over the transition layer , such that the transition layer is disposed between the plurality of electrodes and the electrolyte layer , wherein providing the plurality of electrodes comprises: mixing perfluorinated ion solution and catalyst powder to obtain a slurry, concentrating the slurry using ultrasonication for a predetermined time period, during which the slurry is mixed under vacuum distillation at a temperature of approximately 40-50°C and a pressure of approximately 200-300 Pa (2-3 mbar), to produce a paste, and printing the paste over the substrate to form the plurality of electrodes through annealing. providing a plurality of electrodes over a substrate comprising diffusion holes , the plurality of electrodes having a hydrophobic coating and covering the diffusion holes extending cylindrically through the thickness of the substrate ; printing a transition layer over the plurality of electrodes , the transition layer comprising at least a first mixture of a water immiscible liquid and a hydrophilic inert substance over the plurality of electrodes ; and applying an electrolyte layer comprising at least a second mixture of an acid solution and a solid polymer over the transition layer , such that the transition layer is disposed between the plurality of electrodes and the electrolyte layer , wherein providing the plurality of electrodes comprises: mixing perfluorinated ion solution and catalyst powder to obtain a slurry, concentrating the slurry using ultrasonication for a predetermined time period, during which the slurry is mixed under vacuum distillation at a temperature of approximately 40-50°C and a pressure of approximately 200-300 Pa (2-3 mbar), to produce a paste, and printing the paste over the substrate to form the plurality of electrodes through annealing. mixing perfluorinated ion solution and catalyst powder to obtain a slurry, concentrating the slurry using ultrasonication for a predetermined time period, during which the slurry is mixed under vacuum distillation at a temperature of approximately 40-50°C and a pressure of approximately 200-300 Pa (2-3 mbar), to produce a paste, and printing the paste over the substrate to form the plurality of electrodes through annealing.
A refrigerator comprising: a cabinet defining a storage space; a door configured to open and close at least a portion of the storage space ; a first ice maker provided in the door ; a second ice maker provided in the storage space and facing the door in a closed state of the door ; characterized by a first cold air passage (P1) configured to guide the cold air to the first ice maker , by bypassing the second ice maker ; and a second cold air passage (P2) configured to guide the cold air to the second ice maker . a cabinet defining a storage space; a door configured to open and close at least a portion of the storage space ; a first ice maker provided in the door ; a second ice maker provided in the storage space and facing the door in a closed state of the door ; characterized by a first cold air passage (P1) configured to guide the cold air to the first ice maker , by bypassing the second ice maker ; and a second cold air passage (P2) configured to guide the cold air to the second ice maker .
Process for the separation of a flow containing at least 95 mol% of carbon dioxide and also at least one impurity lighter than carbon dioxide by distillation, in which: i. the flow is cooled in a heat exchange means (E) down to a first intermediate temperature of the heat exchange means, greater than that of the cold end and lower than that of the hot end of the heat exchange means, to form a liquid flow cooled to the first intermediate temperature and at a first pressure, and the cooled liquid flow is divided into at least two in order to form a first liquid fraction and a second liquid fraction , ii. the first fraction in liquid form is expanded to the pressure of a distillation column (K), called second pressure, which is lower than the first pressure, and it is sent to an intermediate level of the distillation column, iii. the second fraction is subcooled in the heat exchange means down to the cold end of the latter, it is expanded in liquid form to the pressure of the distillation column and it is sent to a level of the distillation column above the point of arrival of the first fraction, and iv. a liquid flow containing at least 99 mol% of carbon dioxide is withdrawn at the bottom of the column as liquid product . i. the flow is cooled in a heat exchange means (E) down to a first intermediate temperature of the heat exchange means, greater than that of the cold end and lower than that of the hot end of the heat exchange means, to form a liquid flow cooled to the first intermediate temperature and at a first pressure, and the cooled liquid flow is divided into at least two in order to form a first liquid fraction and a second liquid fraction , ii. the first fraction in liquid form is expanded to the pressure of a distillation column (K), called second pressure, which is lower than the first pressure, and it is sent to an intermediate level of the distillation column, iii. the second fraction is subcooled in the heat exchange means down to the cold end of the latter, it is expanded in liquid form to the pressure of the distillation column and it is sent to a level of the distillation column above the point of arrival of the first fraction, and iv. a liquid flow containing at least 99 mol% of carbon dioxide is withdrawn at the bottom of the column as liquid product .
A security context obtaining system, wherein the system comprises a first access and mobility management function, AMF, and a second AMF; the first AMF is configured to: receive (S316) a first registration request message from user equipment UE after the UE is handed over from a 4G communications system to a 5G communications system; validate (S317) integrity of the first registration request message; and if successfully validating the integrity of the first registration request message, send (S310) a second request message to the second AMF; and the second AMF is configured to: receive (S310) the second request message; and if the second request message carries indication information and the indication information indicates that the UE is validated, send (S330) a native 5G security context of the UE to the first AMF. the first AMF is configured to: receive (S316) a first registration request message from user equipment UE after the UE is handed over from a 4G communications system to a 5G communications system; validate (S317) integrity of the first registration request message; and if successfully validating the integrity of the first registration request message, send (S310) a second request message to the second AMF; and the second AMF is configured to: receive (S310) the second request message; and if the second request message carries indication information and the indication information indicates that the UE is validated, send (S330) a native 5G security context of the UE to the first AMF.
Use of a resistance heater for processing a semiconductor wafer, the resistance heater comprising: a body comprising: at least one heating surface , the at least one heating surface being generally smooth and generally flat; a recess formed in the body ; and first and second end portions , wherein the recess is not formed in the first and second end portions , characterized in that at least a portion of the body has a horizontally symmetrical cross-sectional shape, wherein horizontally symmetrical means symmetrical with respect to a plane parallel to the at least one heating surface , and wherein the cross-sectional shape extends along at least a portion of the body , and wherein the recess is formed in portions of both first and second surfaces of the body forming a generally I-shaped cross-sectional shape, or wherein the recess is formed in portions of both first and second surfaces of the body forming a generally H-shaped cross-sectional shape. at least one heating surface , the at least one heating surface being generally smooth and generally flat; a recess formed in the body ; and first and second end portions , wherein the recess is not formed in the first and second end portions , characterized in that at least a portion of the body has a horizontally symmetrical cross-sectional shape, wherein horizontally symmetrical means symmetrical with respect to a plane parallel to the at least one heating surface , and wherein the cross-sectional shape extends along at least a portion of the body , and wherein the recess is formed in portions of both first and second surfaces of the body forming a generally I-shaped cross-sectional shape, or wherein the recess is formed in portions of both first and second surfaces of the body forming a generally H-shaped cross-sectional shape.
A gearbox system , comprising: a gearbox having a housing , wherein the housing includes an external surface that includes a contoured shape , wherein the contoured shape includes contours formed by a plurality of flat portions and a plurality of curved portions ; an add-on cooling fin panel in thermal engagement with the external surface , wherein the cooling fin panel includes a plurality of cooling fins ; an attachment feature constructed to affix the cooling fin panel to the gearbox , wherein the cooling fin panel is constructed to transfer heat from the external surface to the cooling fin panel by conduction; wherein the cooling fin panel is configured to transfer heat to an environment in which the gearbox is located by convection, and wherein the cooling fin panel includes a base and is constructed to match and engage the contoured shape of the external surface of the housing to transfer heat from the external surface through the base and to the environment via the cooling fins ; characterized in that , the base of the cooling fin panels is formed to match and complement the contour of the corresponding plurality of flat portions and curved portions of the housing . a gearbox having a housing , wherein the housing includes an external surface that includes a contoured shape , wherein the contoured shape includes contours formed by a plurality of flat portions and a plurality of curved portions ; an add-on cooling fin panel in thermal engagement with the external surface , wherein the cooling fin panel includes a plurality of cooling fins ; an attachment feature constructed to affix the cooling fin panel to the gearbox , wherein the cooling fin panel is constructed to transfer heat from the external surface to the cooling fin panel by conduction; wherein the cooling fin panel is configured to transfer heat to an environment in which the gearbox is located by convection, and wherein the cooling fin panel includes a base and is constructed to match and engage the contoured shape of the external surface of the housing to transfer heat from the external surface through the base and to the environment via the cooling fins ; characterized in that , the base of the cooling fin panels is formed to match and complement the contour of the corresponding plurality of flat portions and curved portions of the housing .
A direct current electric motor comprising: • a rotor equipped with permanent magnets, the rotor being arranged to rotate continuously in a determined rotation direction; • a first stator inductor (A) having first inductor parameters; • a second stator inductor (B) having second inductor parameters; • a voltage supply unit for providing a voltage supply to the first and second stator inductors (A, B) for driving the rotor ; • an measurement unit for detecting time instants when a first induced voltage in the first stator inductor (A) equals a second induced voltage in the second stator inductor (B); • a control unit for controlling the application of drive voltage pulses by the voltage supply unit to the first and second stator inductors (A, B), wherein the rotor is arranged to first face the second stator inductor (B) before facing the first stator inductor (A) when being rotated in the determined rotation direction; wherein at least one of the second inductor parameters is different from a corresponding parameter of the first inductor parameters such that a maximum induced voltage in the first stator inductor (A) is greater than a maximum induced voltage in the second stator inductor (B), and wherein the control unit is arranged to trigger each drive voltage pulse after a detection, by the measurement unit , of an equal induced voltage in each of the first and second stator inductors (A, B). • a rotor equipped with permanent magnets, the rotor being arranged to rotate continuously in a determined rotation direction; • a first stator inductor (A) having first inductor parameters; • a second stator inductor (B) having second inductor parameters; • a voltage supply unit for providing a voltage supply to the first and second stator inductors (A, B) for driving the rotor ; • an measurement unit for detecting time instants when a first induced voltage in the first stator inductor (A) equals a second induced voltage in the second stator inductor (B); • a control unit for controlling the application of drive voltage pulses by the voltage supply unit to the first and second stator inductors (A, B),
A filter for an ostomy bag comprising a backing layer , a layer of odour-adsorbing material , a hydrophobic membrane layer , and a layer of adhesive webbing , wherein the layer of adhesive webbing comprise distinct fine lines of adhesive, whereby the purpose of the adhesive is to bond the filter to a layer of the ostomy bag with which it is to be used.
A method for manufacturing a gradient heat-flux sensor, characterized in that the method comprises: - depositing a semiconductor layer on a planar surface, - removing material from the semiconductor layer so that mutually parallel semiconductor ridges are formed, the semiconductor ridges being separate from each other and having first sidewalls being slanting with respect to the planar surface and facing towards a first direction and second sidewalls facing towards a second direction different from the first direction, and subsequently - filling gaps between adjacent ones of the semiconductor ridges with one or more materials comprising metal so that i) metal-semiconductor contact junctions are formed on at least the first sidewalls of the semiconductor ridges and ii) gap-fillers constituted by the one or more materials and located in different ones of the gaps are separate from each other so that the metals of the gap-fillers located in different ones of the gaps are free from metallic contacts between each other, wherein the semiconductor ridges and the gap-fillers constitute an anisotropic multilayer structure for forming electromotive force in a direction perpendicular to the semiconductor ridges and parallel with the planar surface in response to a heat-flux through the anisotropic multilayer structure in a direction perpendicular to the planar surface. - depositing a semiconductor layer on a planar surface, - removing material from the semiconductor layer so that mutually parallel semiconductor ridges are formed, the semiconductor ridges being separate from each other and having first sidewalls being slanting with respect to the planar surface and facing towards a first direction and second sidewalls facing towards a second direction different from the first direction, and subsequently - filling gaps between adjacent ones of the semiconductor ridges with one or more materials comprising metal so that i) metal-semiconductor contact junctions are formed on at least the first sidewalls of the semiconductor ridges and ii) gap-fillers constituted by the one or more materials and located in different ones of the gaps are separate from each other so that the metals of the gap-fillers located in different ones of the gaps are free from metallic contacts between each other,