mhurhangee/patent-ind-claim-en huggingface dataset:
Use of a loaded particulate carrier comprising surface-reacted calcium carbonate loaded with an active ingredient, said active ingredient having a solubility limit in water of less than 10 g/l, measured at 20 °C and 1 bar, characterized in that the loaded particulate carrier is used for preparing an aqueous system comprising said active ingredient in dissolved form, wherein the mass concentration of dissolved active ingredient in said aqueous system corresponds to a supersaturated state, wherein the surface-reacted calcium carbonate is a reaction product of ground natural calcium carbonate (GNCC) or precipitated calcium carbonate (PCC) treated with CO 2 and one or more H 3 O + ion donors, wherein the CO 2 is formed in situ by the H 3 O + ion donors treatment and/or is supplied from an external source.
An optical marker for positioning a medical device outside a body, comprising: a base ; and a connecting portion connected to the base and used for connecting to a to-be-positioned portion of the medical device , the optical marker characterized in that : the base is in a shape of a bowl and includes a concave inner surface and a convex outer surface, non-coplanar optical marks are provided on and visible on the concave inner surface and/or the convex outer surface for recognizing the optical marker by a positioning device and determining a position of the medical device based on the recognized optical marker , wherein: the base is made of a transparent material, and the inner surface or the outer surface is covered with a non-transparent optical mark layer provided with the optical marks; or the base is made of a non-transparent material, and the optical marks are on both the inner surface and the outer surface, such that from a direction of the inner surface or a direction of the outer surface of the bowl, position information about the optical marks can be captured. a base ; and a connecting portion connected to the base and used for connecting to a to-be-positioned portion of the medical device , the optical marker characterized in that : the base is in a shape of a bowl and includes a concave inner surface and a convex outer surface, non-coplanar optical marks are provided on and visible on the concave inner surface and/or the convex outer surface for recognizing the optical marker by a positioning device and determining a position of the medical device based on the recognized optical marker , wherein: the base is made of a transparent material, and the inner surface or the outer surface is covered with a non-transparent optical mark layer provided with the optical marks; or the base is made of a non-transparent material, and the optical marks are on both the inner surface and the outer surface, such that from a direction of the inner surface or a direction of the outer surface of the bowl, position information about the optical marks can be captured. the base is made of a transparent material, and the inner surface or the outer surface is covered with a non-transparent optical mark layer provided with the optical marks; or the base is made of a non-transparent material, and the optical marks are on both the inner surface and the outer surface, such that from a direction of the inner surface or a direction of the outer surface of the bowl, position information about the optical marks can be captured.
Multi-spindle turning machine, comprising a machine frame having a spindle drum housing , a spindle drum mounted in the spindle drum housing for rotation about a spindle drum axis , said spindle drum having a plurality of workpiece spindles arranged therein about the spindle drum axis , said workpiece spindles in turn being rotatable about spindle axes and having workpiece spindle heads thereof in facing relationship with a workspace arranged forward of a front side of the spindle drum and forward of a front side of the spindle drum housing , and a spindle drum drive for rotating the spindle drum about the spindle drum axis , wherein the spindle drum drive is arranged at a side of the spindle drum housing facing away from the workspace and is arranged at a distance from a rear side of the spindle drum housing , and wherein for driving the spindle drum , the spindle drum drive acts on the spindle drum in an inner area thereof lying radially inside of the workpiece spindles , and wherein for driving the spindle drum , the spindle drum drive acts on the inner area of the spindle drum via a drive connecting element , characterized in that the drive connecting element has a shell body surrounding a central passageway and in that , through the passageway , lines are routed to the spindle drum . a machine frame having a spindle drum housing , a spindle drum mounted in the spindle drum housing for rotation about a spindle drum axis , said spindle drum having a plurality of workpiece spindles arranged therein about the spindle drum axis , said workpiece spindles in turn being rotatable about spindle axes and having workpiece spindle heads thereof in facing relationship with a workspace arranged forward of a front side of the spindle drum and forward of a front side of the spindle drum housing , and a spindle drum drive for rotating the spindle drum about the spindle drum axis , wherein the spindle drum drive is arranged at a side of the spindle drum housing facing away from the workspace and is arranged at a distance from a rear side of the spindle drum housing , and wherein for driving the spindle drum , the spindle drum drive acts on the spindle drum in an inner area thereof lying radially inside of the workpiece spindles , and wherein for driving the spindle drum , the spindle drum drive acts on the inner area of the spindle drum via a drive connecting element , characterized in that the drive connecting element has a shell body surrounding a central passageway and in that , through the passageway , lines are routed to the spindle drum .
A block copolymer of an ABA type including an A block and a B block and having an acid value of 30 to 250 mgKOH/g, the B block containing a structural unit derived from a vinyl monomer with an acid group, wherein a structural unit derived from a vinyl monomer with an acid group and contained in the A block is at a content of 10% by mass or less in 100% by mass of the A block.
A nasal dilator comprising a flexible strip , an adhesive substance layer formed on the entire of one surface of the flexible strip and a release liner covering the adhesive substance layer , wherein the release liner is divided into a first piece covering one longitudinal end region of the adhesive substance layer and to be removed from the adhesive substance layer at the time of use of the nasal dilator , a second piece covering a longitudinal middle region of the adhesive substance layer and to be left adhered to the longitudinal middle region of the adhesive substance layer at the time of use of the nasal dilator and a third piece covering the other longitudinal end region of the adhesive substance layer and to be removed from the adhesive substance layer at the time of use of the nasal dilator .
An X-ray scanning system comprising an X-ray source arranged to generate X-rays from a plurality of source positions around a scanning region, a cylindrical detector array made up of a plurality of circular arrays of scatter detectors arranged to detect X-rays scattered within the scanning region, and a data collecting system comprising a memory having a plurality of areas each being associated with a respective sub-volume of an imaging volume, data input means arranged to receive input data from the backscatter detectors in a predetermined sequence, wherein the system further comprises a look-up table having entries stored therein that, for each of the source positions, associate each of the backscatter detectors with a respective sub-volume of the imaging volume, and processing means arranged to generate from the input data X-ray scattering data associated with each of the sub-volumes of the imaging volume, and to store the X-ray scattering data in the appropriate memory areas using the look up table, wherein the processing means is arranged to store the X-ray scattering data in the memory for each of a plurality of tomographic scans of an object as the object moves through an imaging region, and to extract the X-ray scattering data from the memory after each of the scans so that X-ray scattering data for a subsequent scan can be stored in the memory.
Comminution unit 1, comprising a first comminution stage A with a rotor 7 driven by means of a rotary drive and a second comminution stage B located underneath with a rotor 8 driven by means of a rotary drive whereby the rotor 7 of the first comminution stage A and the rotor 8 of the second comminution stage B have a common rotational axis 9 that is vertically aligned characterised in that the first comminution stage A is a shredder and the second comminution stage B is a granulator. a first comminution stage A with a rotor 7 driven by means of a rotary drive and a second comminution stage B located underneath with a rotor 8 driven by means of a rotary drive whereby the rotor 7 of the first comminution stage A and the rotor 8 of the second comminution stage B have a common rotational axis 9 that is vertically aligned characterised in that the first comminution stage A is a shredder and the second comminution stage B is a granulator.
An electronic device configured to interact with a head mounted display (HMD) device , the electronic device comprising: at least one communication circuit configured to provide communication with at least one external electronic device ; a display ; and a processor operatively connected with the at least one communication circuit and the display, wherein the processor is configured to: display a 3-dimensional 3D image using the display; receive a scroll input for the 3D image; characterized in that the processor is further configured to: determine a scroll angular speed based at least on a scroll speed corresponding to the scroll input and a depth of the 3D image; control the display to display the 3D image based on a first method based on the determined scroll angular speed being less than a specified angular speed; and control the display to display the 3D image based on a second method different from the first method based on the determined scroll angular speed being greater than or equal to the specified angular speed. at least one communication circuit configured to provide communication with at least one external electronic device ; a display ; and a processor operatively connected with the at least one communication circuit and the display, wherein the processor is configured to: display a 3-dimensional 3D image using the display; receive a scroll input for the 3D image; characterized in that the processor is further configured to: determine a scroll angular speed based at least on a scroll speed corresponding to the scroll input and a depth of the 3D image; control the display to display the 3D image based on a first method based on the determined scroll angular speed being less than a specified angular speed; and control the display to display the 3D image based on a second method different from the first method based on the determined scroll angular speed being greater than or equal to the specified angular speed. display a 3-dimensional 3D image using the display; receive a scroll input for the 3D image; characterized in that the processor is further configured to: determine a scroll angular speed based at least on a scroll speed corresponding to the scroll input and a depth of the 3D image; control the display to display the 3D image based on a first method based on the determined scroll angular speed being less than a specified angular speed; and control the display to display the 3D image based on a second method different from the first method based on the determined scroll angular speed being greater than or equal to the specified angular speed. determine a scroll angular speed based at least on a scroll speed corresponding to the scroll input and a depth of the 3D image; control the display to display the 3D image based on a first method based on the determined scroll angular speed being less than a specified angular speed; and control the display to display the 3D image based on a second method different from the first method based on the determined scroll angular speed being greater than or equal to the specified angular speed.
A bending test facility for a metal sheet material for an automobile body, comprising: a supporting member that supports two supported portions of a flat test specimen (P) formed of the metal sheet material for an automobile body; a punch for performing a bending test in which an area between the two supported portions of the test specimen (P) is pressed from an opposite side to the supporting member so that the test specimen (P) is bent to be deformed; and a camera for photographing, from the side of the supporting member , a bending outside surface of the test specimen (P) during the bending test using the punch , characterized in that the relative positions of the punch and the camera during the bending test are fixed, and by a tester that includes a movable portion (S) and an immovable portion (T) and advances or retracts the movable portion (S) relative to the immovable portion (T), wherein the punch and the camera are installed in either one of the movable portion (S) and the immovable portion (T), and the supporting member is installed in the other one of the movable portion (S) and the immovable portion (T). a supporting member that supports two supported portions of a flat test specimen (P) formed of the metal sheet material for an automobile body; a punch for performing a bending test in which an area between the two supported portions of the test specimen (P) is pressed from an opposite side to the supporting member so that the test specimen (P) is bent to be deformed; and a camera for photographing, from the side of the supporting member , a bending outside surface of the test specimen (P) during the bending test using the punch , characterized in that the relative positions of the punch and the camera during the bending test are fixed, and by a tester that includes a movable portion (S) and an immovable portion (T) and advances or retracts the movable portion (S) relative to the immovable portion (T), wherein the punch and the camera are installed in either one of the movable portion (S) and the immovable portion (T), and the supporting member is installed in the other one of the movable portion (S) and the immovable portion (T).
A storage container comprising: a container base; a container cover hingedly coupled to the container base for pivotal displacement between an open position and a closed position; a magnet fixed to the container cover and configured to secure the storage container to a metallic surface; characterized in that , the container cover and the container base , when in the open position, are configured to open to a maximum angle of between sixty and one-hundred and twenty degrees; wherein it further comprises a display package having a blister assembly including a front blister surface having a first opening therein and a rear blister surface coupled to the front blister surface and defining a first cavity , wherein the container base is securable within the first cavity with the container cover coupled to the first container portion for pivotal displacement between the open position and the closed position while the container based is secured within the blister assembly , so that the magnet is configured to secure the display package to the metallic surface with the container cover in the open position; wherein the magnet is located at or beyond the outer perimeter of the blister assembly when the second container portion is in the open position. a container base; a container cover hingedly coupled to the container base for pivotal displacement between an open position and a closed position; a magnet fixed to the container cover and configured to secure the storage container to a metallic surface; characterized in that , the container cover and the container base , when in the open position, are configured to open to a maximum angle of between sixty and one-hundred and twenty degrees;
Sealing arrangement for a turbomachine, in particular a gas turbine, comprising a first component , a second component , a flap for sealing a gap between the first and the second component, and a leaf spring having a first leg and a second leg , wherein, in an assembled state, in which the flap and the second component do not contact one another, a projection of a bearing region of the first component , against which region the first leg is supported via the flap , perpendicular to a contact line (K) through at least two contact points of the first leg with the flap , is located at least partially within a support surface (A) of the first component , against which surface the second leg of the pretensioned leaf spring is supported.
Hand-guided working implement with a drive motor and with a control for activating the drive motor , wherein the working implement has a housing , a first actuating element and a second actuating element , wherein the first actuating element acts on a locking device for the control , wherein the locking device has an enabling position , in which the control is enabled for activating the drive motor , and wherein the locking device has a locking position , in which the locking device mechanically blocks an actuation of the control , characterised in that the first actuating element acts on the locking device by way of a transmission device , and in that the transmission device establishes an operative connection between the first actuating element and the locking device in the actuated position of the second actuating element , so that the locking device is in the enabling position in the actuated position of the first actuating element and in the locking position in the non-actuated position of the first actuating element , and wherein the transmission device is inactive in the non-actuated position of the second actuating element , so that the locking device is in the locking position irrespective of the position of the first actuating element .
An indoor unit of a wall-mounted air conditioner, comprising: a housing comprising a face frame ; a chassis covering a rear side of the face frame and defining an inner cavity having a downward opening; and an air duct assembly comprising: a mounting bracket movably mounted to the chassis and detachably connected with the face frame , wherein the mounting bracket is configured to move into or out of the inner cavity through the opening of the inner cavity in a direction towards a rear side of the face frame ; characterised in that : the mounting bracket comprises: an inserting member , wherein the chassis defines a sliding slot , and the inserting member is movable in the sliding slot ; and the sliding slot comprises: a front slot wall inclined forwards from top to bottom, and an angle α between the front slot wall and a vertical direction is at least 0° and at most 89°. a housing comprising a face frame ; a chassis covering a rear side of the face frame and defining an inner cavity having a downward opening; and an air duct assembly comprising: a mounting bracket movably mounted to the chassis and detachably connected with the face frame , wherein the mounting bracket is configured to move into or out of the inner cavity through the opening of the inner cavity in a direction towards a rear side of the face frame ; characterised in that : the mounting bracket comprises: an inserting member , wherein the chassis defines a sliding slot , and the inserting member is movable in the sliding slot ; and an inserting member , wherein the chassis defines a sliding slot , and the inserting member is movable in the sliding slot ; and the sliding slot comprises: a front slot wall inclined forwards from top to bottom, and an angle α between the front slot wall and a vertical direction is at least 0° and at most 89°.
A silicone rubber composition comprising: (A) 100 parts by mass of an organopolysiloxane having at least two alkenyl groups in a molecule and free of an aryl group; (B) 0.1 to 5 parts by mass of (B-1) an organosiloxane having in a molecule at least one silicon-bonded aryl group, at least one silicon-bonded hydrogen atom, and free of an alkenyl group, or a mixture of component (B-1) and (B-2) an organosiloxane having in a molecule at least one aryl group and at least one alkenyl group; (C) 0.1 to 5 parts by mass of an acrylic or a methacrylic compound; (D) an organopolysiloxane having at least two silicon-bonded hydrogen atoms in a molecule and free of an aryl group and an alkenyl group, in an amount such that the mole ratio of silicon-bonded hydrogen atoms per 1 mole of total aliphatic unsaturated bonds in this component is 0.5 to 5; and (E) a catalytically effective amount of a hydrosilylation reaction catalyst. (A) 100 parts by mass of an organopolysiloxane having at least two alkenyl groups in a molecule and free of an aryl group; (B) 0.1 to 5 parts by mass of (B-1) an organosiloxane having in a molecule at least one silicon-bonded aryl group, at least one silicon-bonded hydrogen atom, and free of an alkenyl group, or a mixture of component (B-1) and (B-2) an organosiloxane having in a molecule at least one aryl group and at least one alkenyl group; (C) 0.1 to 5 parts by mass of an acrylic or a methacrylic compound; (D) an organopolysiloxane having at least two silicon-bonded hydrogen atoms in a molecule and free of an aryl group and an alkenyl group, in an amount such that the mole ratio of silicon-bonded hydrogen atoms per 1 mole of total aliphatic unsaturated bonds in this component is 0.5 to 5; and (E) a catalytically effective amount of a hydrosilylation reaction catalyst.
An apparatus for cleaning an object detecting sensor, the apparatus comprising: a driving environment acquirer configured to acquire driving environment information of a vehicle the driving environment information includes at least one of a location and a speed of the vehicle based on navigation, a speed of the vehicle based on a speed sensor , or a traffic situation based on vehicle-to-everything communication (V2X); a cleaning nozzle configured to eject a washing liquid for cleaning the object detecting sensor according to an operation period of the cleaning nozzle , the operation period being set based on the driving environment information; and a controller configured to calculate a driving state score of the vehicle based on the driving environment information and to set the operation period of the cleaning nozzle based on the driving state score characterized in that the controller calculates the driving state score by combining a score given according to the location of the vehicle , a score given according to the speed of the vehicle , and a score given according to the traffic situation around the vehicle . a driving environment acquirer configured to acquire driving environment information of a vehicle the driving environment information includes at least one of a location and a speed of the vehicle based on navigation, a speed of the vehicle based on a speed sensor , or a traffic situation based on vehicle-to-everything communication (V2X); a cleaning nozzle configured to eject a washing liquid for cleaning the object detecting sensor according to an operation period of the cleaning nozzle , the operation period being set based on the driving environment information; and a controller configured to calculate a driving state score of the vehicle based on the driving environment information and to set the operation period of the cleaning nozzle based on the driving state score characterized in that the controller calculates the driving state score by combining a score given according to the location of the vehicle , a score given according to the speed of the vehicle , and a score given according to the traffic situation around the vehicle .