mhurhangee/patent-ind-claim-en huggingface dataset:
An extractor (10; 150) comprising: an extraction chamber; a screen configured to support a solid material as the solid material is conveyed through the extraction chamber; and a conveyance system configured to convey the solid material along the screen in a direction of material travel, wherein the screen has a top surface that the solid material contacts during operation, a bottom surface opposite the top surface , and a plurality of apertures extending from the top surface through the bottom surface , characterized in that the bottom surface of the screen is coated with a non-stick coating while the top surface of the screen is devoid of the non-stick coating, and the screen is fabricated from metal and the top surface is exposed metal. an extraction chamber; a screen configured to support a solid material as the solid material is conveyed through the extraction chamber; and a conveyance system configured to convey the solid material along the screen in a direction of material travel, wherein the screen has a top surface that the solid material contacts during operation, a bottom surface opposite the top surface , and a plurality of apertures extending from the top surface through the bottom surface , the bottom surface of the screen is coated with a non-stick coating while the top surface of the screen is devoid of the non-stick coating, and the screen is fabricated from metal and the top surface is exposed metal.
A calibration method for a refrigerator, wherein the refrigerator comprises a plurality of compartments and a plurality of refrigeration systems for cooling the plurality of compartments in a one-to-one correspondence, the calibration method comprises: (S101) starting a compressor of the refrigerator, detecting temperatures of the plurality of compartments; (S102) controlling a first refrigeration system of the plurality of refrigeration systems to operate for a first predetermined time, detecting the temperatures of the plurality of compartments again; (S103) determining, according to temperature variations of the plurality of compartments, the correspondence between the first refrigeration system and a first compartment of the plurality of compartments. (S101) starting a compressor of the refrigerator, detecting temperatures of the plurality of compartments; (S102) controlling a first refrigeration system of the plurality of refrigeration systems to operate for a first predetermined time, detecting the temperatures of the plurality of compartments again; (S103) determining, according to temperature variations of the plurality of compartments, the correspondence between the first refrigeration system and a first compartment of the plurality of compartments.
Shoe upper comprising a woven portion, wherein the woven portion comprises: a. a plurality of warp yarns; b. a plurality of weft yarns; c. at least one stitching yarn , wherein the stitching yarn is integrally woven into the fabric during the weaving process by laterally displacing the stitching yarn substantially along the weft direction and moving the stitching yarn in and out of at least one open reed gap in a reed , wherein at least one stitching yarn makes an angle of between 30° and 60° with the warp or weft yarns between at least two different interlacing points; and wherein the stitching yarn is located within 2 cm from at least one lace eyelet and/or around a heel counter. a. a plurality of warp yarns; b. a plurality of weft yarns; c. at least one stitching yarn , wherein the stitching yarn is integrally woven into the fabric during the weaving process by laterally displacing the stitching yarn substantially along the weft direction and moving the stitching yarn in and out of at least one open reed gap in a reed ,
Method for producing a ceramic carrier body comprising cooling elements and sintered metallization regions which are arranged one above the other in at least two metallization planes, the carrier body having a surface on which sintered metallization regions are arranged in a first metallization plane, which metallization regions carry electronic components and/or are structured in such a way that they form resistors or coils, and these metallization regions, together with the components and/or the formed resistors or coils, being covered by a ceramic plate and further regions of these sintered metallization regions being optionally arranged on the ceramic plate in other metallization planes and each being covered by a ceramic plate and sintered metallization regions being arranged on the uppermost ceramic plate , facing away from the cooling elements, in a metallization plane for receiving circuit elements, characterized in that , in order to produce a metallization plane after producing the ceramic carrier body which has the cooling elements, a) portions of the surface of the carrier body are coated with a tungsten-glass paste during screen printing, the tungsten-glass paste being printed up to the outer edge of the carrier body at at least one point, b) the uncoated faces are subsequently printed with an insulating paste, after which the tungsten-glass paste and the insulating paste are debound, c) a polished ceramic plate is then placed on the debound pastes d) and then the method steps a, b and c are optionally repeated, the ceramic plate then being printed and e) finally, in order to create side metallizations, the inner tungsten metallizations are connected to the uppermost copper metallization by means of another screen printing step using copper paste on the side face of the carrier body. a) portions of the surface of the carrier body are coated with a tungsten-glass paste during screen printing, the tungsten-glass paste being printed up to the outer edge of the carrier body at at least one point, b) the uncoated faces are subsequently printed with an insulating paste, after which the tungsten-glass paste and the insulating paste are debound, c) a polished ceramic plate is then placed on the debound pastes d) and then the method steps a, b and c are optionally repeated, the ceramic plate then being printed and e) finally, in order to create side metallizations, the inner tungsten metallizations are connected to the uppermost copper metallization by means of another screen printing step using copper paste on the side face of the carrier body.
A cell selection method , comprising: obtaining , by a terminal device , an identifier of at least one cell corresponding to a network type supported by the terminal device and that the terminal device has accessed before, wherein the identifier is obtained according to saved information; and determining , by the terminal device according to the identifier of the at least one cell, a target cell for cell selection or cell reselection; wherein the network type is a Stand-alone Non-Public Network, SNPN, network; wherein the identifier of the at least one cell is an identifier of the SNPN network; and wherein the identifier of the SNPN network is a PLMN+Network ID, NID, identifier. obtaining , by a terminal device , an identifier of at least one cell corresponding to a network type supported by the terminal device and that the terminal device has accessed before, wherein the identifier is obtained according to saved information; and determining , by the terminal device according to the identifier of the at least one cell, a target cell for cell selection or cell reselection; wherein the network type is a Stand-alone Non-Public Network, SNPN, network; wherein the identifier of the at least one cell is an identifier of the SNPN network; and wherein the identifier of the SNPN network is a PLMN+Network ID, NID, identifier.
A device configured to make a solid object , the device comprising: a surface rotatable around an axis of rotation ; an applicator configured to apply over at least one portion of the surface a material used to make the solid object ; the applicator and the surface being displaceable relative to each other in a direction transverse to the axis; and a controller configured to receive instructions for making the solid object , the instructions being in the form of data indicative of a plurality of curved layers of material to be applied sequentially by the device , wherein, in a coordinate system having x-, y- and z-directions orthogonal to each other, the axis of rotation extends along the z-direction, and gravity is in the negative y-direction characterised in that an angle made by a first line between the applicator and the axis of rotation , along which the material is ejected from the applicator , and by a second line extending vertically upwards from the axis of rotation is in the range of 75 degrees to 180 degrees, and the first line and the second line extend in a x-y-plane. a surface rotatable around an axis of rotation ; an applicator configured to apply over at least one portion of the surface a material used to make the solid object ; the applicator and the surface being displaceable relative to each other in a direction transverse to the axis; and a controller configured to receive instructions for making the solid object , the instructions being in the form of data indicative of a plurality of curved layers of material to be applied sequentially by the device , wherein, in a coordinate system having x-, y- and z-directions orthogonal to each other, the axis of rotation extends along the z-direction, and gravity is in the negative y-direction characterised in that an angle made by a first line between the applicator and the axis of rotation , along which the material is ejected from the applicator , and by a second line extending vertically upwards from the axis of rotation is in the range of 75 degrees to 180 degrees, and the first line and the second line extend in a x-y-plane.
A method for creating a tooth model using a statistical technique such that the resulting tooth model can be modified in a way that maintains a natural tooth shape, comprising steps of: (a) scanning multiple samples of a single tooth type into 3D format suitable for computer processing to define sets of scanned samples of a single tooth type; (b) for each set of scanned sample of a single tooth type, determining a set of common points across all single teeth in the scanned sample ; (c) performing a statistical analysis of the data in the scanned sample using the common points across all teeth in the scanned sample to create an average statistical model of each tooth position ; (d) replacing the average statistical model of a tooth position with a tooth sample having surface details for the tooth position; and (e) performing a statistical combination of at least a portion of the tooth sample having surface details and of structures of the statistical model for a tooth top of interest to design a patient specific tooth for a dental restoration, wherein determining a set of common points across all single teeth in the scanned sample comprises computing point-to-point correspondence between respective teeth in the sample using a harmonic map. (a) scanning multiple samples of a single tooth type into 3D format suitable for computer processing to define sets of scanned samples of a single tooth type; (b) for each set of scanned sample of a single tooth type, determining a set of common points across all single teeth in the scanned sample ; (c) performing a statistical analysis of the data in the scanned sample using the common points across all teeth in the scanned sample to create an average statistical model of each tooth position ; (d) replacing the average statistical model of a tooth position with a tooth sample having surface details for the tooth position; and (e) performing a statistical combination of at least a portion of the tooth sample having surface details and of structures of the statistical model for a tooth top of interest to design a patient specific tooth for a dental restoration, wherein determining a set of common points across all single teeth in the scanned sample comprises computing point-to-point correspondence between respective teeth in the sample using a harmonic map.
A system for processing data, the system comprising: a glucose sensor configured to be implanted within a body; and sensor electronics configured to receive and process sensor signals output by the sensor , the sensor electronics coupled to a processor module, wherein the processor module is configured to: apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data to determine whether a real time glucose value meets or crosses a hypoglycemic threshold settable by a user; activate a first hypoglycemic alert or alarm when the real time glucose value meets or crosses the hypoglycemic threshold; evaluate sensor data to determine whether a predicted glucose value will meet or cross a predictive hypoglycemic threshold in a time frame; activate a second hypoglycemic alert when the predicted glucose value is predicted to meet or cross the predictive hypoglycemic threshold in the time frame; characterized in that the predictive hypoglycemic threshold is not settable by the user. a glucose sensor configured to be implanted within a body; and sensor electronics configured to receive and process sensor signals output by the sensor , the sensor electronics coupled to a processor module, wherein the processor module is configured to: apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data to determine whether a real time glucose value meets or crosses a hypoglycemic threshold settable by a user; activate a first hypoglycemic alert or alarm when the real time glucose value meets or crosses the hypoglycemic threshold; evaluate sensor data to determine whether a predicted glucose value will meet or cross a predictive hypoglycemic threshold in a time frame; activate a second hypoglycemic alert when the predicted glucose value is predicted to meet or cross the predictive hypoglycemic threshold in the time frame; characterized in that the predictive hypoglycemic threshold is not settable by the user. apply a conversion function to sensor data, the conversion function taking into account temperature correction; evaluate sensor data to determine whether a real time glucose value meets or crosses a hypoglycemic threshold settable by a user; activate a first hypoglycemic alert or alarm when the real time glucose value meets or crosses the hypoglycemic threshold; evaluate sensor data to determine whether a predicted glucose value will meet or cross a predictive hypoglycemic threshold in a time frame; activate a second hypoglycemic alert when the predicted glucose value is predicted to meet or cross the predictive hypoglycemic threshold in the time frame; characterized in that the predictive hypoglycemic threshold is not settable by the user.
Device for charging an electrical energy store of a vehicle having an electrical drive, comprising an electrical contact apparatus that is assigned to the vehicle and has a first power contact forming a first pole, a second power contact forming a second pole, a control contact and a potential equalization contact , and comprising a mating contact apparatus that is assigned to a charging station and has mating contacts corresponding to the vehicle-side contacts , wherein the vehicle-side contacts are formed by two contact rails , wherein two contacts are assigned to each contact rail , wherein the two contacts of the respective contact rail are spaced apart from one another by a defined longitudinal distance, as seen in the rail longitudinal direction, wherein the control contact has a shorter length than the power contacts , wherein the power contacts have a shorter length than the potential equalization contact , and wherein the first power contact , the second power contact , the control contact and the potential equalization contact of the vehicle-side contact apparatus are arranged and formed in such a way that, when the vehicle moves forwards and/or backwards, starting from a contact state in which each vehicle-side contact is in contact with an assigned charging station-side mating contact , first, the vehicle-side control contact comes out of contact with an assigned charging station-side mating control contact , subsequently, the vehicle-side power contacts come out of contact with assigned charging station-side mating power contacts and, finally, the vehicle-side potential equalization contact comes out of contact with an assigned charging station-side mating potential equalization contact . wherein the vehicle-side contacts are formed by two contact rails , wherein two contacts are assigned to each contact rail , wherein the two contacts of the respective contact rail are spaced apart from one another by a defined longitudinal distance, as seen in the rail longitudinal direction, wherein the control contact has a shorter length than the power contacts , wherein the power contacts have a shorter length than the potential equalization contact , and wherein the first power contact , the second power contact , the control contact and the potential equalization contact of the vehicle-side contact apparatus are arranged and formed in such a way that, when the vehicle moves forwards and/or backwards, starting from a contact state in which each vehicle-side contact is in contact with an assigned charging station-side mating contact , first, the vehicle-side control contact comes out of contact with an assigned charging station-side mating control contact , subsequently, the vehicle-side power contacts come out of contact with assigned charging station-side mating power contacts and, finally, the vehicle-side potential equalization contact comes out of contact with an assigned charging station-side mating potential equalization contact .
A coffee machine comprising a body , a brewing chamber that is disposed in the body and wherein the coffee is mixed with water and brewed, and a pouring port disposed at the base of the brewing chamber ; characterized by a valve that is disposed in the brewing chamber , that is seated onto the pouring port and that has a lower part having a channel aligned with the pouring port and an upper part positioned above the lower part and connected to the lower part so as to move in the vertical direction, the valve enabling the foam on the coffee to be transferred through the channel by creating a gap between the upper part and the lower part when first the upper part is moved upwards by means of an actuator (A), the valve further enabling the pouring port to be opened and the remaining coffee to be transferred as the lower part also moves upwards when the upper part is further moved upwards.
A method for managing localization data at an electronic device comprising: generating, at the electronic device , localization data for the electronic device based on imagery captured at the electronic device and based on received non-visual pose information obtained from non-visual sensors; identifying a plurality of features of an environment of the electronic device based on the captured imagery , and assigning a quality value to each identified feature based on characteristics of features identified from the localization data , wherein the characteristics of the plurality of features comprise a consistency of position of each of the plurality of features in different images of the captured imagery ; identifying a quality value threshold derived from at least one of an average of the quality values, a median of the quality values, and a value based on a number of quality values that exceed the quality value threshold; reducing the localization data based on characteristics of the plurality of features by removing data associated with features having a quality value below the quality value threshold; and mapping the environment of the electronic device based on the reduced localization data . generating, at the electronic device , localization data for the electronic device based on imagery captured at the electronic device and based on received non-visual pose information obtained from non-visual sensors; identifying a plurality of features of an environment of the electronic device based on the captured imagery , and assigning a quality value to each identified feature based on characteristics of features identified from the localization data , wherein the characteristics of the plurality of features comprise a consistency of position of each of the plurality of features in different images of the captured imagery ; identifying a quality value threshold derived from at least one of an average of the quality values, a median of the quality values, and a value based on a number of quality values that exceed the quality value threshold; reducing the localization data based on characteristics of the plurality of features by removing data associated with features having a quality value below the quality value threshold; and mapping the environment of the electronic device based on the reduced localization data .
A device that pretreats fabrics internally, wherein it comprises a dyeing machine including a storage trough , a roller a plaiter , a fluid nozzle that is installed on the plaiter inlet and a steam spraying device installed along the fabric pathway to supply steam during operation, characterised in that the steam spraying device includes a device body, a connection tube for fixing, a steam nozzle , steam tubes , a steam outlet and a steam generator, wherein the steam generator is connected with the steam tubes and the steam nozzle is installed on the steam tubes with the steam nozzle being the steam outlet , extruded from said device body, wherein the connection tube is attached to the plaiter and wherein said device body is ring-shaped, and the steam tube surrounds the device body and the steam outlet is installed inside the device inner wall.