mhurhangee/patent-ind-claim-en huggingface dataset:
A laundry treatment apparatus comprising: a cabinet defining an appearance of the laundry treatment apparatus; a drum rotatably disposed in the cabinet ; and a drive unit for rotating the drum , wherein the drive unit comprises: a first drive unit for generating rotational force required to rotate the drum ; and a second drive unit for changing rotational force generated by the first drive unit wherein the first drive unit comprises: a first stator for generating first rotating magnetic fields; and a first rotor , characterized by a magnetic flux converter rotatably disposed radially outside the first stator to change flux of the first rotating magnetic fields generated by the first stator ; and the first rotor being disposed radially outside the magnetic flux converter and rotated by the magnetic force from the first rotating magnetic fields, wherein the magnetic flux converter is configured to rotate with the second drive unit . a cabinet defining an appearance of the laundry treatment apparatus; a drum rotatably disposed in the cabinet ; and a drive unit for rotating the drum , wherein the drive unit comprises: a first drive unit for generating rotational force required to rotate the drum ; and a second drive unit for changing rotational force generated by the first drive unit a first drive unit for generating rotational force required to rotate the drum ; and a second drive unit for changing rotational force generated by the first drive unit wherein the first drive unit comprises: a first stator for generating first rotating magnetic fields; and a first rotor , characterized by a first stator for generating first rotating magnetic fields; and a first rotor , characterized by a magnetic flux converter rotatably disposed radially outside the first stator to change flux of the first rotating magnetic fields generated by the first stator ; and the first rotor being disposed radially outside the magnetic flux converter and rotated by the magnetic force from the first rotating magnetic fields, wherein the magnetic flux converter is configured to rotate with the second drive unit .
An absorbent article comprising: one or more complexed or encapsulated compounds selected from: 3-(3-propan-2-ylphenyl)butanal, 5-methyl-2-thiophene-carboxaldehyde, hydratropic aldehyde, 9-undecenal, 10-undecenal, trans-4-decenal, cis-6-nonenal, and isocyclocitral.
Process for applying particles to the inner wall of a tyre comprising two sidewalls , a crown provided radially externally with a tread, a carcass-type reinforcing structure and at least one crown reinforcement , the inner surface of the sidewalls and of the crown forming an inner wall, at least one portion of said inner wall being covered with at least one layer of self-sealing composition, the particles being applied after the curing of the tyre to the layer of self-sealing composition by a flocking technique, characterized in that the particles comprise used tyre grindings or grindings derived from production scrap.
Air intake for a heating, ventilating and/or air conditioning unit, said air intake comprising an air flow channel and a fluid circulation housing so that air flowing through said air flow channel further flows through said 2. fluid circulation housing , said fluid circulation housing being configured to measure particles in said air said air intake further comprising an interface , configured to drive the air between said air flow channel and said fluid circulation housing , and an actuator system fixed on a first lateral side of said air flow channel and located externally from said air flow channel , characterised by , said interface being configured to support said I fluid circulation housing with a lever arm so that said fluid circulation housing is located beyond said actuator system relative to said air flow channel .
A method for producing a dosage form, comprising the steps of: a) providing a surface-reacted calcium carbonate, wherein the surface-reacted calcium carbonate is a reaction product of natural ground or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors in an aqueous medium, wherein the carbon dioxide is formed in-situ by the H 3 O + ion donor treatment and/or is supplied from an external source; b) providing at least one active ingredient; c) loading the surface-reacted calcium carbonate of step a) with the at least one active ingredient of step b); d) compacting the loaded surface-reacted calcium carbonate obtained in step c) by means of a roller compacter at a compaction force in the range from 1 to 30 kN/cm into a compacted form; and e) milling the compacted form of step d) into granules; with the proviso that the compacted form of the loaded surface-reacted calcium carbonate obtained in step d) consists of the surface-reacted calcium carbonate of step a) and the at least one active ingredient of step b), wherein the at least one active ingredient is selected from the group consisting of fragrances, flavours, herbal extracts, fruit extracts, nutrients, trace minerals, repellents, food, cosmetics, flame retardants, enzymes, pesticides, fertilizers, preserving agents, antioxidants, pharmaceutically active agents and mixtures thereof. a) providing a surface-reacted calcium carbonate, wherein the surface-reacted calcium carbonate is a reaction product of natural ground or precipitated calcium carbonate with carbon dioxide and one or more H 3 O + ion donors in an aqueous medium, wherein the carbon dioxide is formed in-situ by the H 3 O + ion donor treatment and/or is supplied from an external source; b) providing at least one active ingredient; c) loading the surface-reacted calcium carbonate of step a) with the at least one active ingredient of step b); d) compacting the loaded surface-reacted calcium carbonate obtained in step c) by means of a roller compacter at a compaction force in the range from 1 to 30 kN/cm into a compacted form; and e) milling the compacted form of step d) into granules; with the proviso that the compacted form of the loaded surface-reacted calcium carbonate obtained in step d) consists of the surface-reacted calcium carbonate of step a) and the at least one active ingredient of step b),
A charging roll comprising: a core member , a rubber base material disposed around the core member , and a surface layer disposed around the rubber base material , characterized in that an average of heights of contours of convex portions on a surface of the surface layer relative to an average cylindrical surface obtained by averaging surface irregularities of the surface layer is equal to or greater than 0.8 micrometers and is equal to or less than 2.1 micrometers, the convex portions being portions protruding radially outward from the average cylindrical surface, and an average of intervals between apexes of the convex portions on the surface of the surface layer is equal to or greater than 6.6 micrometers and is equal to or less than 11.5 micrometers, wherein the average of intervals is calculated on the assumption that the convex portions are evenly distributed in a photographed field of view. a core member , a rubber base material disposed around the core member , and a surface layer disposed around the rubber base material , characterized in that an average of heights of contours of convex portions on a surface of the surface layer relative to an average cylindrical surface obtained by averaging surface irregularities of the surface layer is equal to or greater than 0.8 micrometers and is equal to or less than 2.1 micrometers, the convex portions being portions protruding radially outward from the average cylindrical surface, and an average of intervals between apexes of the convex portions on the surface of the surface layer is equal to or greater than 6.6 micrometers and is equal to or less than 11.5 micrometers, wherein the average of intervals is calculated on the assumption that the convex portions are evenly distributed in a photographed field of view.
Method for the sensor-based localization of at least one autonomously driving vehicle for passenger transportation using a system of artificial landmarks in an environment , wherein the artificial landmarks each have a code marking for unique identifiability and are installed at a height which is at the height or above the height of the roof of the vehicle , wherein at least one sensor for the sensor-based localization is situated on the roof of the vehicle , characterized in that , during operation of the vehicle , a check is carried out, with the inclusion of the artificial landmarks , in order to determine whether there is sensor decalibration of the at least one sensor by checking whether the at least one sensor senses a calibration strip of the artificial landmarks .
A medical device or aquatic article having a surface containing a passivating coating comprising a polyurea copolymer having a polymer backbone and comprising a reaction product of: (a) a diamine composition comprising a diamine block copolymer having a formula (I), a polyethylene glycol diamine having a formula (II), or a combination of (I) and (II): wherein y is an integer in the range of 2 to 40, and x + z is an integer in the range of 1 to 8; or wherein n is an integer in the range of 1 to 500; and (b) a diisocyanate, wherein the diisocyanate has a formula: OCN-B-NCO where B is a bivalent alkyl radical having 2 to 20 carbon atoms, and wherein the diisocyanate is present in a molar ratio with total diamines in (a) in a range of 2:1 to 1:2. (a) a diamine composition comprising a diamine block copolymer having a formula (I), a polyethylene glycol diamine having a formula (II), or a combination of (I) and (II): wherein y is an integer in the range of 2 to 40, and x + z is an integer in the range of 1 to 8; or wherein n is an integer in the range of 1 to 500; and (b) a diisocyanate, wherein the diisocyanate has a formula: OCN-B-NCO
A method performed by a Session Management Function, SMF , for handling local breakout of traffic in a Fifth Generation, 5G, system, the method comprising: receiving , from a Policy Control Function, PCF , policy information indicating traffic that should be routed via a second User Plane Function, UPF , to a second Data Network, DN ; before setting up a local breakout, providing , to a first UPF routing traffic to a first DN , a first traffic detection filter for detecting the traffic indicated in the received policy information; detecting that there is traffic matching the first traffic detection filter; and setting-up , according to the policy information, a local breakout to the second UPF when the matching traffic has been detected, wherein the setting-up comprises setting-up the second UPF . receiving , from a Policy Control Function, PCF , policy information indicating traffic that should be routed via a second User Plane Function, UPF , to a second Data Network, DN ; before setting up a local breakout, providing , to a first UPF routing traffic to a first DN , a first traffic detection filter for detecting the traffic indicated in the received policy information; detecting that there is traffic matching the first traffic detection filter; and setting-up , according to the policy information, a local breakout to the second UPF when the matching traffic has been detected, wherein the setting-up comprises setting-up the second UPF .
A power tool comprising: a housing ; a brushless DC motor housed inside the housing , the motor comprising a stator assembly and a rotor assembly at least a portion of which is arranged pivotably inside the stator assembly , the rotor assembly including a rotor and a plurality of permanent magnets characterised in that the rotor assembly further includes a rotor lamination stack wherein the rotor is fixedly housed inside a center portion of the rotor lamination stack to pivot therewith, the rotor lamination stack housing the plurality of permanent magnets longitudinally arranged inside the lamination stack and extending beyond the longitudinal length of the rotor lamination stack in at least one direction towards at least one magnet sensor to facilitate sensing of the permanent magnet via the at least one magnet sensor , wherein the rotor assembly further comprises a magnet retaining cap arranged adjacent to a first end of the rotor lamination stack , the magnet retaining cap including a plurality of slots to receive portions of the plurality of permanent magnets extending beyond the longitudinal length of the rotor lamination stack . a housing ; a brushless DC motor housed inside the housing , the motor comprising a stator assembly and a rotor assembly at least a portion of which is arranged pivotably inside the stator assembly , the rotor assembly including a rotor and a plurality of permanent magnets characterised in that the rotor assembly further includes a rotor lamination stack wherein the rotor is fixedly housed inside a center portion of the rotor lamination stack to pivot therewith, the rotor lamination stack housing the plurality of permanent magnets longitudinally arranged inside the lamination stack and extending beyond the longitudinal length of the rotor lamination stack in at least one direction towards at least one magnet sensor to facilitate sensing of the permanent magnet via the at least one magnet sensor , wherein the rotor assembly further comprises a magnet retaining cap arranged adjacent to a first end of the rotor lamination stack , the magnet retaining cap including a plurality of slots to receive portions of the plurality of permanent magnets extending beyond the longitudinal length of the rotor lamination stack .
A firewood fire stand for open and closed fireplaces for the optimum burning of firewood, comprising two lateral stand elements , which are connected to each other with at least one connecting piece , characterised in that - the stand elements each consist of two parts arranged mirror-inverted with respect to one another and spaced apart by at least one spacer , wherein the two parts are connected to one another by the at least one spacer , wherein the at least one connecting piece is arranged in a form-fit manner between the two parts of the stand elements and at least one spacer serves as a lower limit of the at least one connecting piece , and - each part of the stand elements is formed in one piece from a rod and comprises an o upper and a lower wood support section, o a connecting section , which connects the upper to the lower wood support section, and o a foot section , which is arranged on the lower wood support section opposite the connecting section and points away from the upper wood support section , wherein the two parts are connected together at the connecting section by the at least one spacer and the at least one connecting piece reversibly connects the two lateral stand elements to one another, so that the distance between the two stand elements can be adjusted. - the stand elements each consist of two parts arranged mirror-inverted with respect to one another and spaced apart by at least one spacer , wherein the two parts are connected to one another by the at least one spacer , wherein the at least one connecting piece is arranged in a form-fit manner between the two parts of the stand elements and at least one spacer serves as a lower limit of the at least one connecting piece , and - each part of the stand elements is formed in one piece from a rod and comprises an o upper and a lower wood support section, o a connecting section , which connects the upper to the lower wood support section, and o a foot section , which is arranged on the lower wood support section opposite the connecting section and points away from the upper wood support section , wherein the two parts are connected together at the connecting section by the at least one spacer and the at least one connecting piece reversibly connects the two lateral stand elements to one another, so that the distance between the two stand elements can be adjusted. o upper and a lower wood support section, o a connecting section , which connects the upper to the lower wood support section, and o a foot section , which is arranged on the lower wood support section opposite the connecting section and points away from the upper wood support section ,
Wall formwork for the construction of walls with a formwork facing and elements which support the formwork facing , with several anchor holes which pass through supporting elements , with a sleeve made of plastic which is held in a force-fit and/or form-fit manner in an anchor hole , wherein the sleeve extends from one end of the anchor hole to the other end of the anchor hole , and wherein the outer face of the sleeve tightly abuts the inner face of the anchor hole at the side of the formwork facing, wherein each anchor hole comprises a sleeve , characterized in that the sleeve has one or more laterally outwardly projecting form-fit elements which are engaged with holes in the inner wall of the anchor hole to fix the sleeve in the anchor hole in a form-fit manner.
Fitting with at least one sliding block for a partition wall system, wherein the partition wall system comprises partition walls and profile frames , and respectively at least one profile longitudinal groove running in vertical direction is incorporated in the profile frames to receive the at least one sliding block , wherein the at least one sliding block has a screw-down bore for attaching the fitting in the profile longitudinal groove , a concentric central axis and a longitudinal axis , wherein the screw-down bore is offset eccentrically with respect to the concentric central axis of the sliding block , characterised in that the sliding block is designed such that it is insertable into the profile longitudinal groove by rotation through 180° about the concentric central axis and/or by turning through 180° about the longitudinal axis in four different installation positions (H1, H2, H3, H4) and is fixable therein by rotation through 90° about the axis of the eccentric screw-down bore so that, depending on installation position (H1, H2, H3, H4) of the sliding block , the fitting mounted with the sliding block is fixable to the profile frame in different installation positions (L, R) and/or for receiving partition walls of different thickness.
Closed loop control method for an electropneumatic field device comprising: - a pneumatic actuating drive for operating a control member, such as a control valve , - an electropneumatic converter for generating a pneumatic manipulating variable signal (p, P) for the pneumatic actuating drive and - an open loop and/or closed loop control electronics having an electronic target value input for a command variable (W) for inputting a target value particularly from a control center and an electronic output for a manipulating variable (Y) for piloting the electropneumatic converter , characterized in that in a predetermined operating condition of the field device, such as a an emergency closed loop control operating condition, the manipulating variable (Y, Y(-X)) is determined by a closed loop control algorithm based on the command variable (W) and on an other controlled variable (-X) than the actual control member position measurement value (X), wherein the other controlled variable being a controlled variable related to the actuating force, such as a tension- and/or elongation measurement value (σ 2 , ε 2 ) of an actuator rod or actuator shaft of the pneumatic actuating drive , and/or a controlled variable related to the actuating pressure, such as an actual actuating pressure measurement value (p0, P1, P2), or a position measurement value (S) regarding the position of a plunger of a pneumatic booster . - a pneumatic actuating drive for operating a control member, such as a control valve , - an electropneumatic converter for generating a pneumatic manipulating variable signal (p, P) for the pneumatic actuating drive and - an open loop and/or closed loop control electronics having an electronic target value input for a command variable (W) for inputting a target value particularly from a control center and an electronic output for a manipulating variable (Y) for piloting the electropneumatic converter ,
A roll method for an aircraft, the aircraft comprising an aircraft body and a remote control , wherein the aircraft body comprises a motor , a power supply and a H-bridge chip which is configured to be electrically connected in parallel to the motor , and wherein the aircraft body further comprises a controller and a six-axis inertial sensor , characterized in that, the method comprises steps of: S 1 , inputting a desired roll angle of the aircraft by a user on the remote control , and transmitting the desired roll angle to the controller by the remote control , wherein the desired roll angle is 180° or 360°; S 2 , detecting a current real-time roll angle of the aircraft relative to a horizontal plane and transmitting the real-time roll angle to the controller by the six-axis inertial sensor ; S 3 , calculating a difference value between the desired roll angle and the real-time roll angle and calculating a reverse-rotation voltage according to the difference value by the controller ; and S 4 , controlling the H-bridge chip by the controller so that the reverse-rotation voltage is input to the motor . S 1 , inputting a desired roll angle of the aircraft by a user on the remote control , and transmitting the desired roll angle to the controller by the remote control , wherein the desired roll angle is 180° or 360°; S 2 , detecting a current real-time roll angle of the aircraft relative to a horizontal plane and transmitting the real-time roll angle to the controller by the six-axis inertial sensor ; S 3 , calculating a difference value between the desired roll angle and the real-time roll angle and calculating a reverse-rotation voltage according to the difference value by the controller ; and S 4 , controlling the H-bridge chip by the controller so that the reverse-rotation voltage is input to the motor .
A downhole drilling motor comprising a motor housing having an inner bore and an outer surface; a power section including a stator elastomer and a rotor at least partially disposed within the inner bore of the motor housing ; a bearing section including an upper bearing at least partially disposed within the inner bore of the motor housing ; a transmission shaft operatively positioned between the power section and the bearing section ; the downhole drilling motor characterized in that : the downhole drilling motor includes a first opening disposed below the stator elastomer and the rotor and above the transmission shaft and the bearing section and wherein the first opening extends from the inner bore to the outer surface of the motor housing and provides a bypass fluid path for a fluid from the inner bore to the outer surface of the motor housing .
A method of making an intraocular implant comprising: placing an opaque mask in a mold chamber, the opaque mask comprising an outer diameter in the range from 3 mm to 8 mm and an aperture with a diameter of less than 2 mm; flowing a lens material into the mold chamber around the mask, ; and curing the lens material to form a monofocal optic, wherein by curing the lens material, the opaque mask is coupled to an anterior surface of the monofocal optic, the annular mask having an annular portion with a relatively low visible light transmission surrounding a relatively high transmission central portion for light to pass through to the retina to increase depth of focus, in use. placing an opaque mask in a mold chamber, the opaque mask comprising an outer diameter in the range from 3 mm to 8 mm and an aperture with a diameter of less than 2 mm; flowing a lens material into the mold chamber around the mask, ; and curing the lens material to form a monofocal optic, wherein by curing the lens material, the opaque mask is coupled to an anterior surface of the monofocal optic, the annular mask having an annular portion with a relatively low visible light transmission surrounding a relatively high transmission central portion for light to pass through to the retina to increase depth of focus, in use.