mhurhangee/ep-ind-claims huggingface dataset:
A medium detecting device comprising: a magneto-resistive sensor adapted to detect magnetism of a medium being transferred; a sensor housing for protecting the sensor; and a pressing unit (20; 50; 60; 70) adapted to press the medium toward the sensor, wherein the pressing unit (20; 50) comprises: a supporting part (221, 222; 521, 522; 620; 720) comprising two supporters (226, 227; 526, 527; 626, 627; 726, 727) to press the medium toward the sensor; and an elastic member (240; 540) elastically supporting the supporting part (221, 222; 521, 522; 620; 720), wherein the two supporters (226, 227; 526, 527; 626, 627; 726, 727) are spaced from each other by a predetermined interval, and a rotating member (230; 530; 630; 730) is rotatably disposed between the supporters (226, 227; 526, 527; 626, 627; 726, 727); characterized in that the sensor is disposed between the two supporters (226, 227; 526, 527; 626, 627; 726, 727) and the two supporters (226, 227; 526, 527; 626, 627; 726, 727) are not in contact with the sensor but in contact with the sensor housing. a magneto-resistive sensor adapted to detect magnetism of a medium being transferred; a sensor housing for protecting the sensor; and a pressing unit (20; 50; 60; 70) adapted to press the medium toward the sensor, a supporting part (221, 222; 521, 522; 620; 720) comprising two supporters (226, 227; 526, 527; 626, 627; 726, 727) to press the medium toward the sensor; and an elastic member (240; 540) elastically supporting the supporting part (221, 222; 521, 522; 620; 720), wherein the two supporters (226, 227; 526, 527; 626, 627; 726, 727) are spaced from each other by a predetermined interval, and a rotating member (230; 530; 630; 730) is rotatably disposed between the supporters (226, 227; 526, 527; 626, 627; 726, 727); characterized in that the sensor is disposed between the two supporters (226, 227; 526, 527; 626, 627; 726, 727) and the two supporters (226, 227; 526, 527; 626, 627; 726, 727) are not in contact with the sensor but in contact with the sensor housing.
A row unit for a seeding machine comprising: a first seed meter having a first metering member for singulating seeds; and a second seed meter having a second metering member for singulating seeds; characterized in further comprising a motor operably coupled to the first and second seed meters (22a, 22b) to selectively drive the first seed meter or the second seed meter. a first seed meter having a first metering member for singulating seeds; and a second seed meter having a second metering member for singulating seeds; characterized in further comprising a motor operably coupled to the first and second seed meters (22a, 22b) to selectively drive the first seed meter or the second seed meter.
A method for producing a number of pipes with a predetermined pipe diameter, comprising the steps: - feeding multiple pipe parts (101, 102) with the predetermined pipe diameter to a welding station, - aligning in each case a first pipe part and a second pipe part coaxially with respect to one another and axially adjacent to one another, - welding the pipe parts (101, 102) by means of a fully encircling weld seam to form a pipe run, and - conveying the pipe run to a cutting station in a machine direction downstream of the welding station, characterized by - cutting off the number of pipes in a respectively designated length from the pipe run, wherein after the cutting-off of the number of pipes, a residual pipe part remains, and the method comprises the step: - transferring the residual pipe part into a buffer store. - feeding multiple pipe parts (101, 102) with the predetermined pipe diameter to a welding station, - aligning in each case a first pipe part and a second pipe part coaxially with respect to one another and axially adjacent to one another, - welding the pipe parts (101, 102) by means of a fully encircling weld seam to form a pipe run, and - conveying the pipe run to a cutting station in a machine direction downstream of the welding station, - cutting off the number of pipes in a respectively designated length from the pipe run, wherein after the cutting-off of the number of pipes, a residual pipe part remains, and the method comprises the step: - transferring the residual pipe part into a buffer store.
Orthodontic tooth position regulation arrangement with a tooth rail, which can be placed on a row of teeth and removed from it, and comprising on its inner side individual pockets, each for receiving a tooth (3, 3.1), with an elastic plastic material, wherein the tooth position regulation arrangement is configured in such a way that, when the tooth rail is placed on the row of teeth, force can be applied on specific points by at least one pressure point onto at least one of the teeth (3, 3.1) received in the tooth rail, wherein the tooth position regulation arrangement comprises at least one pressure point attachment (2, 2.1), which can be secured in non-positive fit to the at least one tooth (3, 3.1) which is received in the tooth rail at the point(s) determined beforehand as a pressure point for the tooth regulation, in such a way that the tooth rail can take effect with its inner side for the purpose of applying force at a specific point, held under preliminary tension against the pressure point attachment (2, 2.1), characterised in that the inner side of the tooth rail forms a negative structure of the row of teeth before the at least one pressure point attachment (2, 2.1, 2.2) is secured to the at least one tooth (3, 3.1) of the row of teeth.
A detection apparatus (1, 1b), comprising: a transducer (2, 2a) configured to transmit a transmission wave and to receive a reception wave resulting from a reflection of said transmission wave on reflection objects; a first echo intensity calculation means configured to calculate a first echo intensity of a first reception signal generated from the reception wave; a compression means configured to compress said first reception signal to generate a second reception signal, a signal duration of said second reception signal being shorter than that of said first reception signal; a second echo intensity calculation means configured to calculate a second echo intensity from said second reception signal compressed by said compression means; a frequency distribution generation means (14, 15) configured to generate a first frequency distribution of said first echo intensity and to generate a second frequency distribution of said second echo intensity; means (16, 19) for comparing said first frequency distribution and said second frequency distribution; and a density extraction means configured to determine a value representing a density of said reflection objects based on a degree of similarity between said first frequency distribution and said second frequency distribution as a result of said comparison of said first frequency distribution and said second frequency distribution. a transducer (2, 2a) configured to transmit a transmission wave and to receive a reception wave resulting from a reflection of said transmission wave on reflection objects; a first echo intensity calculation means configured to calculate a first echo intensity of a first reception signal generated from the reception wave; a compression means configured to compress said first reception signal to generate a second reception signal, a signal duration of said second reception signal being shorter than that of said first reception signal; a second echo intensity calculation means configured to calculate a second echo intensity from said second reception signal compressed by said compression means; a frequency distribution generation means (14, 15) configured to generate a first frequency distribution of said first echo intensity and to generate a second frequency distribution of said second echo intensity; means (16, 19) for comparing said first frequency distribution and said second frequency distribution; and a density extraction means configured to determine a value representing a density of said reflection objects based on a degree of similarity between said first frequency distribution and said second frequency distribution as a result of said comparison of said first frequency distribution and said second frequency distribution.
A method for assessing risk for well completion, comprising: obtaining, using an input interface, a Below Rotary Table hours and a plurality of well-field parameters for one or more planned runs; determining, using at least one processor, one or more non-productive time values indicative of non-productive time that correspond to the one or more planned runs based upon the well-field parameters; developing, using at least one processor, a non-productive time distribution and a Below Rotary Table distribution via one or more Monte Carlo trials based on the Below Rotary Table hours and the one or more non-productive time values; and outputting, using a graphic display, a risk transfer model results based on a total BRT hours from the Below Rotary Table and the non-productive time distribution produced from the one or more Monte Carlo trials. obtaining, using an input interface, a Below Rotary Table hours and a plurality of well-field parameters for one or more planned runs; determining, using at least one processor, one or more non-productive time values indicative of non-productive time that correspond to the one or more planned runs based upon the well-field parameters; developing, using at least one processor, a non-productive time distribution and a Below Rotary Table distribution via one or more Monte Carlo trials based on the Below Rotary Table hours and the one or more non-productive time values; and outputting, using a graphic display, a risk transfer model results based on a total BRT hours from the Below Rotary Table and the non-productive time distribution produced from the one or more Monte Carlo trials.
A method of processing hyaluronic acid or Na-hyaluronate, comprising: providing hyaluronic acid or Na-hyaluronate in dry particulate form; optionally providing at least one active pharmaceutical ingredient; providing a single-phase multicomponent system of solvents, wherein the system of solvents comprises (a) water and (b) ethanol or isopropanol; blending the hyaluronic acid or Na-hyaluronate in dry particulate form and the single-phase multicomponent system of solvents; homogenizing the blended mixture by mechanical means; and pressing the homogenized blended mixture in a cavity or a mold, and drying and/or solidifying before or after removal from the cavity or mold. providing hyaluronic acid or Na-hyaluronate in dry particulate form; optionally providing at least one active pharmaceutical ingredient; providing a single-phase multicomponent system of solvents, wherein the system of solvents comprises (a) water and (b) ethanol or isopropanol; blending the hyaluronic acid or Na-hyaluronate in dry particulate form and the single-phase multicomponent system of solvents; homogenizing the blended mixture by mechanical means; and pressing the homogenized blended mixture in a cavity or a mold, and drying and/or solidifying before or after removal from the cavity or mold.
A disaster tolerance service system, characterized by comprising: a fault detection module, configured to detect whether a service and/or a service server for operating the service are/is in a fault state; a server management module, configured to determine a disaster tolerance server for replacing the service server if a detection result is that the service and/or the service server for operating the service are/is in the fault state, wherein the disaster tolerance server performs disaster tolerance, wherein the server management module comprises: an obtaining sub-module, configured to obtain an idle disaster tolerance server; and a determining sub-module, configured to determine the disaster tolerance server for replacing the service server according to a performance of the idle disaster tolerance server; a service install/uninstall module, configured to install the service on the disaster tolerance server; and a service operation module, configured to operate the service on the disaster tolerance server. a fault detection module, configured to detect whether a service and/or a service server for operating the service are/is in a fault state; a server management module, configured to determine a disaster tolerance server for replacing the service server if a detection result is that the service and/or the service server for operating the service are/is in the fault state, wherein the disaster tolerance server performs disaster tolerance, wherein the server management module comprises: an obtaining sub-module, configured to obtain an idle disaster tolerance server; and a determining sub-module, configured to determine the disaster tolerance server for replacing the service server according to a performance of the idle disaster tolerance server; a service install/uninstall module, configured to install the service on the disaster tolerance server; and a service operation module, configured to operate the service on the disaster tolerance server.
A hinge for a domestic appliance for pivotable fastening of a lid on a body of the domestic appliance, having a first hinge element and a second hinge element, which are pivotably connected to one another and can be pivoted in relation to one another between an open position and a closed position, wherein the first and the second hinge elements (10, 20) are formed as U-shaped, each having a base (11, 21) and legs (12, 22) arranged laterally on the base, wherein the legs of the second hinge element encompass the legs of the first hinge element in the region of a pivot axis, characterized in that a control lever is rotatably mounted on the first hinge element and a control curve is formed on the second hinge element, in which a control pin formed on the control lever is guided, wherein the control curve is formed so that during a closing movement of the hinge, an intermediate position is assumed and held until the closing movement is continued into the closed position, while in contrast during an opening movement out of the closed position, the hinge pivots into the open position, wherein a catch groove, in which the control pin engages in the intermediate position, is formed in the control curve, and wherein the control curve at least sectionally forms a circumferential and heart shaped path for the control pin.
A parenteral composition in the form of oil-in-water emulsion that comprises: (a) 1% to 5% w/w diclofenac or a pharmaceutically acceptable salt, (b) 0% to 50% w/w of an oil component, (c) 0.5% to 20% w/w of a phospholipid component, (d) 60% to 90% w/w of an aqueous component, wherein the oil component is selected from the group consisting of a vegetable oil and a triglyceride, and wherein the emulsion I. is precipitate-free and maintains a PFAT5 less than 0.05% when stored at a temperature of 2-8°C or 25°C for 12 to 24 months, II. has an osmolality of at least 150 mOsm (milliosmoles), and III. has a mean oil droplet diameter of less than 200 nm when stored at a temperature of 2-8°C or 25°C for 12 to 24 months. (a) 1% to 5% w/w diclofenac or a pharmaceutically acceptable salt, (b) 0% to 50% w/w of an oil component, (c) 0.5% to 20% w/w of a phospholipid component, (d) 60% to 90% w/w of an aqueous component, I. is precipitate-free and maintains a PFAT5 less than 0.05% when stored at a temperature of 2-8°C or 25°C for 12 to 24 months, II. has an osmolality of at least 150 mOsm (milliosmoles), and III. has a mean oil droplet diameter of less than 200 nm when stored at a temperature of 2-8°C or 25°C for 12 to 24 months.
An electronic component comprising a stack of layers arranged on a flexible substrate, wherein said stack comprises an electrically active part and a protective layer for protecting the electrically active part against scratches and abrasion, wherein said electrically active part comprises a bottom electrode layer and a top electrode layer and at least one insulating or semi-insulating layer between said electrodes, wherein the stack further comprises a buffer layer, arranged between the top electrode layer and the protective layer, said top electrode layer comprising a top surface facing the protective layer, characterized in that the buffer layer being adapted for at least partially absorbing a lateral dimensional change (ΔL) occurring in the protective layer and thus preventing said dimensional change (ΔL) from being transferred to the electrically active part, characterized in that the buffer layer is adapted for at least partially absorbing the lateral dimensional change (ΔL) by being of a coherent material and having such layer thickness that a lateral dimensional deformation in a top portion of the buffer layer facing the protective layer results in substantially less lateral dimensional deformation in a bottom portion facing the electrically active part, when said lateral dimensional deformation in the upper part is caused by the lateral dimensional change (ΔL) of the protective layer, the difference in lateral deformation between the top and bottom portions corresponding to absorbed lateral dimensional change, wherein the buffer layer extends along the substantially entire top surface of the top electrode layer in the electronic component.
A mid-turbine frame connected to at least one mount of a gas turbine engine for transferring a first load from a first bearing and a second load from a second bearing to the mount, the mid-turbine frame comprising: a first load structure for combining the first load and the second load into a combined load; a second load structure for transferring the combined load to the mount; a plurality of struts connected between the first load structure and the second load structure for transferring the combined load from the first load structure to the second load structure; characterised in that: the first load structure comprises: a stem for combining the first and second loads into the combined load and a branch connected to the stem for absorbing a portion of the combined load from the stem; and a U-shaped torque box having a first end and a second end, wherein the first end of the torque box is connected to the stem and the branch, and wherein the second end of the torque box is connected to the plurality of struts. a first load structure for combining the first load and the second load into a combined load; a second load structure for transferring the combined load to the mount; a plurality of struts connected between the first load structure and the second load structure for transferring the combined load from the first load structure to the second load structure; characterised in that: the first load structure comprises: a stem for combining the first and second loads into the combined load and a branch connected to the stem for absorbing a portion of the combined load from the stem; and a U-shaped torque box having a first end and a second end, wherein the first end of the torque box is connected to the stem and the branch, and wherein the second end of the torque box is connected to the plurality of struts. a stem for combining the first and second loads into the combined load and a branch connected to the stem for absorbing a portion of the combined load from the stem; and a U-shaped torque box having a first end and a second end, wherein the first end of the torque box is connected to the stem and the branch, and wherein the second end of the torque box is connected to the plurality of struts.
Hose with at least the following layer structure: - an internal layer made of an aminically crosslinked rubber mixture with properties of resistance to the substances to be conveyed, and - an adhesive layer made of a peroxidically crosslinked rubber mixture which is in contact with the external side of the internal layer, where the internal layer and the adhesive layer form an adhesive bond; characterized in that - the internal layer is composed of a rubber mixture based on unblended AEM or on an AEM blend, or on unblended ACM or on an ACM blend, and - the adhesive layer is composed of a rubber mixture based on EPM or EPDM, in each case unblended. - an internal layer made of an aminically crosslinked rubber mixture with properties of resistance to the substances to be conveyed, and - an adhesive layer made of a peroxidically crosslinked rubber mixture which is in contact with the external side of the internal layer, where the internal layer and the adhesive layer form an adhesive bond; - the internal layer is composed of a rubber mixture based on unblended AEM or on an AEM blend, or on unblended ACM or on an ACM blend, and - the adhesive layer is composed of a rubber mixture based on EPM or EPDM, in each case unblended.
A wound pad (24, 100) for application in a wound, the wound pad having a main extension parallel to an X-Y plane of a Cartesian coordinate system with axes X, Y and Z, and having a thickness in the Z-direction; said wound pad comprising: a plurality of corners (101, 102, 103, 104), at least one of said plurality of corners being provided as a rounded corner, the projection of which on said X-Y plane has a curvature which differs from a curvature of the projection on said X-Y plane of any of the other corners of said plurality of corners; a plurality of straight edge portions (105, 106, 107, 108), each edge portion connecting two neighbouring corners of said plurality of corners; and one or more main incomplete cuts (2, 14, 40, 42, 44, 46, 48, 112, 113) delineating at least two sections of the wound pad and allowing said wound pad to remain structurally intact unless and until said sections are manually separated from each other, wherein each main incomplete cut of said one or more main incomplete cuts extends - from one of said straight edge portions to an adjacent straight edge portion, or - from one of said straight edge portions to an opposite straight edge portion. a plurality of corners (101, 102, 103, 104), at least one of said plurality of corners being provided as a rounded corner, the projection of which on said X-Y plane has a curvature which differs from a curvature of the projection on said X-Y plane of any of the other corners of said plurality of corners; a plurality of straight edge portions (105, 106, 107, 108), each edge portion connecting two neighbouring corners of said plurality of corners; and one or more main incomplete cuts (2, 14, 40, 42, 44, 46, 48, 112, 113) delineating at least two sections of the wound pad and allowing said wound pad to remain structurally intact unless and until said sections are manually separated from each other, wherein each main incomplete cut of said one or more main incomplete cuts extends - from one of said straight edge portions to an adjacent straight edge portion, or - from one of said straight edge portions to an opposite straight edge portion. - from one of said straight edge portions to an adjacent straight edge portion, or - from one of said straight edge portions to an opposite straight edge portion.
Method for treating a biogas containing siloxanes, characterized in that it comprises the steps consisting of: a) filtering a flow of biogas containing siloxanes with a filter made from activated-carbon cloth so as to adsorb the siloxanes in said filter, then b1) regenerating said filter by circulating an electric current in said filter subjected to a flushing gaseous flow, then b2) optionally destroying said flushing gas thermally, the regeneration phase being carried out at a temperature between 100°C and 300°C, more preferentially between 150°C and 300°C, and even more preferentially between 200°C and 300°C. a) filtering a flow of biogas containing siloxanes with a filter made from activated-carbon cloth so as to adsorb the siloxanes in said filter, then b1) regenerating said filter by circulating an electric current in said filter subjected to a flushing gaseous flow, then b2) optionally destroying said flushing gas thermally,
A solid form of a HCl salt of Compound (I-S): wherein the solid form is Form A crystal form characterized by an XRPD pattern comprising peaks at approximately 15.09, 15.94, and 22.30 degrees 2θ.