mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry handling apparatus comprising: a cabinet ; an outer tub disposed inside the cabinet ; an inner tub rotatably disposed inside the outer tub ; a circulation passage for guiding at least some of the air inside the outer tub to flow out of the outer tub and be resupplied to the outer tub ; a fan disposed in the circulation passage so as to move the air; a filter unit comprising a filter net , which is disposed in the circulation passage so as to collect the foreign substances contained in the moving air, and a filter frame for supporting the filter net ; multiple nozzles for spraying wash water onto the filter net ; a nozzle disposition unit , which is disposed in a position spaced apart from the filter net and has the multiple nozzles arranged therein; a nozzle water supply hose , which is connected to the nozzle disposition unit so as to supply the wash water, which is sprayed by the multiple nozzles ; and a filter driving unit for allowing the filter unit to rotate the filter net ; characterized in that the filter frame comprises an edge frame configured to support the filter net along a peripheral of the edge frame , and the filter driving unit allows the edge frame to perform a rotation motion, wherein the edge frame comprises a driven gear formed along a periphery of the edge frame , the filter driving unit comprises: a worm gear meshing with the driven gear ; and a motor configured to rotate the worm gear . a cabinet ; an outer tub disposed inside the cabinet ; an inner tub rotatably disposed inside the outer tub ; a circulation passage for guiding at least some of the air inside the outer tub to flow out of the outer tub and be resupplied to the outer tub ; a fan disposed in the circulation passage so as to move the air; a filter unit comprising a filter net , which is disposed in the circulation passage so as to collect the foreign substances contained in the moving air, and a filter frame for supporting the filter net ; multiple nozzles for spraying wash water onto the filter net ; a nozzle disposition unit , which is disposed in a position spaced apart from the filter net and has the multiple nozzles arranged therein; a nozzle water supply hose , which is connected to the nozzle disposition unit so as to supply the wash water, which is sprayed by the multiple nozzles ; and a filter driving unit for allowing the filter unit to rotate the filter net ; characterized in that the filter frame comprises an edge frame configured to support the filter net along a peripheral of the edge frame , and the filter driving unit allows the edge frame to perform a rotation motion, wherein the edge frame comprises a driven gear formed along a periphery of the edge frame , the filter driving unit comprises: a worm gear meshing with the driven gear ; and a motor configured to rotate the worm gear .
A seal assembly (176;476) for a gas turbine engine comprising: a seal (169;269;369;469) including a sealing portion (177;277;377;477) that extends from an engagement portion (179;279;379;479); wherein the sealing portion (177;277;377;477) includes a seal face that extends circumferentially between first and second mate faces (178;378;378;478); wherein an internal cavity (184;284;384;484) is defined between the sealing portion (177;277;377;477) and the engagement portion (179;279;379;479) that extends circumferentially between the first and second mate faces (178;378;378;478); and wherein the engagement portion (179;279;379;479) includes an impingement face (189;289;389;489) opposite the seal face that defines an elongated opening (191;291;391;491) to the internal cavity (184;284;384;484), and the elongated opening (191;291;391;491) is a slot that extends circumferentially along the impingement face (189;289;389;489); characterised in that the internal cavity (184;284;384;484) extends from a first opening (185;285;385) along the first mate face (178;378;378;478) to a second opening (185;285;385) along the second mate face (178;378;378;478). a seal (169;269;369;469) including a sealing portion (177;277;377;477) that extends from an engagement portion (179;279;379;479); wherein the sealing portion (177;277;377;477) includes a seal face that extends circumferentially between first and second mate faces (178;378;378;478); wherein an internal cavity (184;284;384;484) is defined between the sealing portion (177;277;377;477) and the engagement portion (179;279;379;479) that extends circumferentially between the first and second mate faces (178;378;378;478); and wherein the engagement portion (179;279;379;479) includes an impingement face (189;289;389;489) opposite the seal face that defines an elongated opening (191;291;391;491) to the internal cavity (184;284;384;484), and the elongated opening (191;291;391;491) is a slot that extends circumferentially along the impingement face (189;289;389;489); characterised in that the internal cavity (184;284;384;484) extends from a first opening (185;285;385) along the first mate face (178;378;378;478) to a second opening (185;285;385) along the second mate face (178;378;378;478).
Electronic control system for controlling the speed of an internal combustion engine and an electric motor, which are arranged as drive motors (M) in a hybrid vehicle, wherein associated motor-specific control parameters are used for each of the two drive motors (M), wherein the differential speed (n diff ) between a predefined target speed (n soll ) and an actual speed (n ist ) of each drive motor (M) are considered as system value for determining motor-specific control parameters that influence the speed control, and wherein as additional system value the differential speed gradient (gradn diff ) is considered in terms of magnitude and direction for determining the motor-specific control parameters, characterised in that in addition to determining the motor-specific control parameters as further system values the changing speed of the target speed (n soll ) and/or the actual speed (n ist ) are taken into account, and in that the system values are transmitted to a processor (P), which from a parameter engine characteristic memory (PKF), in which motor-specific control parameters assigned to all possible system value combinations are stored, reads the associated motor-specific control parameters for system value combinations and transmits the latter to a motor control unit (CPU) of the drive motors (M).
An operation handle which is linkable to a shaft body and which is configured to operate the shaft body , the operation handle comprising: a handle main body ; and a linking clip , wherein the handle main body includes a cylindrical shape shaft body retaining portion fittable over the shaft body , wherein the shaft body retaining portion includes a pair of clip-holding grooves , wherein the linking clip includes a base portion and a pair of elastic legs which face each other via the base portion , wherein each of the pair of elastic legs includes a locking portion , wherein the pair of elastic legs are inserted into the pair of the clip-holding grooves and the shaft body retaining portion is interposed from both sides by the pair of elastic legs and the linking clip is mounted in the shaft body retaining portion , and wherein each of the locking portions extends further inside than an inner peripheral wall of the shaft body retaining portion , characterized in that at least one of the pair of the clip-holding grooves includes a straight region (A1) which is formed in a straight line shape based on the insertion direction of the linking clip and an inclined region (A2) which is continuous to the straight region (A1), has a groove shape inclined from an insertion direction of the linking clip relative to the straight region (A1), and elastically deforms the elastic legs inserted into the clip-holding grooves along the groove shape. a handle main body ; and a linking clip , wherein the handle main body includes a cylindrical shape shaft body retaining portion fittable over the shaft body , wherein the shaft body retaining portion includes a pair of clip-holding grooves , wherein the linking clip includes a base portion and a pair of elastic legs which face each other via the base portion , wherein each of the pair of elastic legs includes a locking portion , wherein the pair of elastic legs are inserted into the pair of the clip-holding grooves and the shaft body retaining portion is interposed from both sides by the pair of elastic legs and the linking clip is mounted in the shaft body retaining portion , and wherein each of the locking portions extends further inside than an inner peripheral wall of the shaft body retaining portion , characterized in that at least one of the pair of the clip-holding grooves includes a straight region (A1) which is formed in a straight line shape based on the insertion direction of the linking clip and an inclined region (A2) which is continuous to the straight region (A1), has a groove shape inclined from an insertion direction of the linking clip relative to the straight region (A1), and elastically deforms the elastic legs inserted into the clip-holding grooves along the groove shape.
A method of forming a laminated glass structure, the method comprising: introducing a continuous ribbon of flexible glass substrate having a thickness of no greater than 0.3 mm to a non-glass substrate material, the non-glass substrate material having a coefficient of thermal expansion (CTE) that is greater than that of the flexible glass substrate; laminating the flexible glass substrate to the non-glass substrate material at an elevated temperature; and controlled cooling of the laminated glass structure to introduce a compressive stress across a thickness of the flexible glass substrate, wherein the flexible glass substrate has a compressive strength of at least 40 MPa across the thickness of the flexible glass substrate. introducing a continuous ribbon of flexible glass substrate having a thickness of no greater than 0.3 mm to a non-glass substrate material, the non-glass substrate material having a coefficient of thermal expansion (CTE) that is greater than that of the flexible glass substrate; laminating the flexible glass substrate to the non-glass substrate material at an elevated temperature; and controlled cooling of the laminated glass structure to introduce a compressive stress across a thickness of the flexible glass substrate, wherein the flexible glass substrate has a compressive strength of at least 40 MPa across the thickness of the flexible glass substrate.
A skin care system comprising: a sensor device configured to generate image data for each of a plurality of images of a user's skin taken at different times; and a processing device configured to: receive the image data; determine a change in the image data for the different times; and determine a skin treatment routine or a skin evaluation based on the change in the image data, wherein the processing device comprises a user interface configured to display the skin treatment routine, wherein the displayed skin treatment routine comprises an image of the skin that indicates areas of the skin requiring treatment. a sensor device configured to generate image data for each of a plurality of images of a user's skin taken at different times; and a processing device configured to: receive the image data; determine a change in the image data for the different times; and determine a skin treatment routine or a skin evaluation based on the change in the image data, receive the image data; determine a change in the image data for the different times; and determine a skin treatment routine or a skin evaluation based on the change in the image data, wherein the processing device comprises a user interface configured to display the skin treatment routine, wherein the displayed skin treatment routine comprises an image of the skin that indicates areas of the skin requiring treatment.
A magnetic-inductive flowmeter for determining the flow volume and/or the flow speed of a liquid medium in a measurement tube , comprising: - a housing ; - a front part situated in the end of the housing and having a front end ; wherein the front end can be loaded by the medium; - at least two measurement electrodes forming a galvanic contact with the medium; wherein the front part has at least one first and one second opening for the measurement electrodes; and - a magnetic-field-generating device situated in the housing for generating a magnetic field extending through the front end; and wherein at least one sensor for determining a process parameter of the medium is situated in the housing, wherein the sensor comprises a pressure transducer, which can be loaded by the pressure acting on the front end, wherein the front part has at least one opening , which is formed as a differential pressure channel. - a housing ; - a front part situated in the end of the housing and having a front end ; wherein the front end can be loaded by the medium; - at least two measurement electrodes forming a galvanic contact with the medium; wherein the front part has at least one first and one second opening for the measurement electrodes; and - a magnetic-field-generating device situated in the housing for generating a magnetic field extending through the front end; and wherein at least one sensor for determining a process parameter of the medium is situated in the housing, wherein the sensor comprises a pressure transducer, which can be loaded by the pressure acting on the front end, wherein the front part has at least one opening , which is formed as a differential pressure channel.
A method of pre-ageing a metal strip comprising: receiving the metal strip at a reheater , wherein the reheater comprises a magnetic rotor ; passing the metal strip adjacent the magnetic rotor of the reheater ; and rotating the magnetic rotor about a rotation axis that is parallel to the metal strip to induce a magnetic field into the metal strip to heat the metal strip at a predetermined temperature; rewinding the strip into coil form by a rewind coiler arranged downstream from the magnetic rotor , characterized in that the predetermined temperature is a pre-ageing temperature from about 60°C to about 150°C and that the heated strip is rewound into coil form by the rewind coiler so that cooling occurs in the strip after having been rewound into coil form. receiving the metal strip at a reheater , wherein the reheater comprises a magnetic rotor ; passing the metal strip adjacent the magnetic rotor of the reheater ; and rotating the magnetic rotor about a rotation axis that is parallel to the metal strip to induce a magnetic field into the metal strip to heat the metal strip at a predetermined temperature; rewinding the strip into coil form by a rewind coiler arranged downstream from the magnetic rotor , characterized in that the predetermined temperature is a pre-ageing temperature from about 60°C to about 150°C and that the heated strip is rewound into coil form by the rewind coiler so that cooling occurs in the strip after having been rewound into coil form.
A polygonal heat-insulating glass panel with straight edges and a flat surface, in which the two parallel flat glass panes enclosing the inner space of the glass panel are connected to each other, at least on one side, by means of a transparent, hermetically sealed spacer , forming a closed frame with the other sides, with the following features: - the transparent spacer is composed of an adhesive mould incorporating a transparent adhesive body and an adhesive flange applied between an outer edge sealing glass strip (4.1) and an inner edge sealing glass strip (4.2), where the width of the outer edge sealing glass strip (4.1) matches that of the glass panel, while the width of the inner edge sealing glass strip (4.2) closing the inner space of the glass panel matches that of the inner space of the glass panel; - the edges of the flat glass panes are chamfered to match the adhesive flange ; - at the edges of the flat glass panes , the sealing lip formed by chamfering directly contacts the sealing surface 13 of the outer edge sealing glass strip (4.1) of the transparent spacer pressed between the flat glass panes . - the transparent spacer is composed of an adhesive mould incorporating a transparent adhesive body and an adhesive flange applied between an outer edge sealing glass strip (4.1) and an inner edge sealing glass strip (4.2), where the width of the outer edge sealing glass strip (4.1) matches that of the glass panel, while the width of the inner edge sealing glass strip (4.2) closing the inner space of the glass panel matches that of the inner space of the glass panel; - the edges of the flat glass panes are chamfered to match the adhesive flange ; - at the edges of the flat glass panes , the sealing lip formed by chamfering directly contacts the sealing surface 13 of the outer edge sealing glass strip (4.1) of the transparent spacer pressed between the flat glass panes .
Rivet element supply unit for providing rivet elements , wherein the rivet element supply unit has a rivet element preparation unit and a handling unit ; wherein the rivet element preparation unit for conveying the rivet elements has a bowl feeder having a longitudinal axis (L) and a spiral which extends about the longitudinal axis (L); wherein the bowl feeder has an opening; wherein the rivet element preparation unit has a picking region to which the bowl feeder feeds rivet elements through the opening, and from which the handling unit picks the rivet elements for transportation to a rivet element receptacle , characterized in that the bowl feeder is rotationally driven, in that the spiral has a gradient angle of less than 20°, and in that the longitudinal axis (L) in relation to the direction of gravity (G) is inclined by an angle of 15° to 75°.
An air filter cartridge comprising: (a) a media pack surrounding an open filter interior and having first and second ends; (b) a first end cap positioned in the media pack first end ; (i) the first end cap having a central aperture therein; (c) a seal member positioned on the first end cap ; (d) a second end cap positioned on the media pack second end ; the second end cap including an inner surface and an outer surface ; (i) the outer surface including a first receiving groove at least 6 mm deep therein; the receiving groove having a width, along its depth of extension, of no greater than 10 mm, (A) an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (ii) the inner surface having a central receiver projecting outwardly away from the first end cap ; (iii) the central receiver being surrounded by the receiving groove , and (iii) the receiving groove being configured to receive a projection of an access cover having a thickness of at least 1 mm and extending into the receiving groove a distance of at least 5 mm to provide cantilever support. (a) a media pack surrounding an open filter interior and having first and second ends; (b) a first end cap positioned in the media pack first end ; (i) the first end cap having a central aperture therein; (i) the first end cap having a central aperture therein; (c) a seal member positioned on the first end cap ; (d) a second end cap positioned on the media pack second end ; the second end cap including an inner surface and an outer surface ; (i) the outer surface including a first receiving groove at least 6 mm deep therein; the receiving groove having a width, along its depth of extension, of no greater than 10 mm, (A) an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (ii) the inner surface having a central receiver projecting outwardly away from the first end cap ; (iii) the central receiver being surrounded by the receiving groove , and (iii) the receiving groove being configured to receive a projection of an access cover having a thickness of at least 1 mm and extending into the receiving groove a distance of at least 5 mm to provide cantilever support. (i) the outer surface including a first receiving groove at least 6 mm deep therein; the receiving groove having a width, along its depth of extension, of no greater than 10 mm, (A) an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (A) an outer wall of the receiving groove being spaced radially inwardly at least 20 mm from the media pack; and, (ii) the inner surface having a central receiver projecting outwardly away from the first end cap ; (iii) the central receiver being surrounded by the receiving groove , and (iii) the receiving groove being configured to receive a projection of an access cover having a thickness of at least 1 mm and extending into the receiving groove a distance of at least 5 mm to provide cantilever support.
A method for determining the presence of a cap on a container comprising: capturing (S202) an image of an object; extracting (S204) an area of interest from the image; determining (S206) from the image a position of one or more edges of the object; and determining the presence (S210) of a cap based on a comparison (S208) of the one or more edge positions to reference data; and determining the type (S210) of cap positioned on a container based on a comparison of the one or more edge positions to reference data; characterized in that determining the one or more edge positions further comprises: determining at least one vertical coordinate (V1,V2,V3) and at least one pair of horizontal coordinates (h1-h2, h3-h4, h5-h6) for each of the determined edge positions; wherein a difference between the pair of horizontal coordinates is a width measurement; and wherein the method further comprises: determining a ratio of the width measurement to the vertical coordinate. capturing (S202) an image of an object; extracting (S204) an area of interest from the image; determining (S206) from the image a position of one or more edges of the object; and determining the presence (S210) of a cap based on a comparison (S208) of the one or more edge positions to reference data; and determining the type (S210) of cap positioned on a container based on a comparison of the one or more edge positions to reference data; characterized in that determining the one or more edge positions further comprises: determining at least one vertical coordinate (V1,V2,V3) and at least one pair of horizontal coordinates (h1-h2, h3-h4, h5-h6) for each of the determined edge positions; wherein a difference between the pair of horizontal coordinates is a width measurement; and wherein the method further comprises: determining a ratio of the width measurement to the vertical coordinate. determining at least one vertical coordinate (V1,V2,V3) and at least one pair of horizontal coordinates (h1-h2, h3-h4, h5-h6) for each of the determined edge positions; wherein a difference between the pair of horizontal coordinates is a width measurement; and wherein the method further comprises: determining a ratio of the width measurement to the vertical coordinate.
A heat exchanger , in particular for heating up, heating and/or evaporating a fluid, said heat exchanger comprising a heat exchanger tube and a plurality of tubes penetrating the heat exchanger tube and being spaced apart from each other, wherein the heat exchanger tube has double the number of openings based on the number of tubes , wherein each tube is guided through two of these openings , and wherein the tubes are connected to the heat exchanger tube on both sides via their end tube sockets , characterized in that the tubes are disposed helically in the heat exchanger tube .