mhurhangee/patent-ind-claim-en huggingface dataset:
A rim block cage for receiving solid or gel-like preparations, comprising • a plurality of containers arranged in a row with respect to one another, in relation to a longitudinal center axis (M) of the rim block cage, for receiving at least one preparation , it being possible for the containers to be positioned underneath the toilet bowl rim such that, when the toilet is flushed, flushing water can flow over said containers and at least one inlet opening and one outlet opening being formed in a container wall for the flushing water, • the containers each having an associated vertical axis (V) when positioned in the toilet bowl, • a retainer for fastening the rim block cage to the toilet bowl rim , • a flushing water guide element being arranged and configured on the rim block cage such that flushing water acts on the flushing water guide element during flushing and the flushing water is fed to the inlet openings , characterized in that • the containers are cylindrical, the axis of rotation thereof being perpendicular to the vertical axis (V), • the inlet openings are arranged asymmetrically with respect to the relevant vertical axis (V) of the containers and, owing to angled installation of each container of the rim block cage, are arranged at an installation angle (α) to the longitudinal central axis (M) of 1°-60°, preferably 5°-45°, particularly preferably 10°-30°, and so two different amounts of active ingredient can be released from the rim block cage, depending on the direction from which the flushing water impacts on the rim block cage, by positioning the rim block cage on opposite sides of the toilet bowl. • a plurality of containers arranged in a row with respect to one another, in relation to a longitudinal center axis (M) of the rim block cage, for receiving at least one preparation , it being possible for the containers to be positioned underneath the toilet bowl rim such that, when the toilet is flushed, flushing water can flow over said containers and at least one inlet opening and one outlet opening being formed in a container wall for the flushing water, • the containers each having an associated vertical axis (V) when positioned in the toilet bowl, • a retainer for fastening the rim block cage to the toilet bowl rim , • a flushing water guide element being arranged and configured on the rim block cage such that flushing water acts on the flushing water guide element during flushing and the flushing water is fed to the inlet openings , • the containers are cylindrical, the axis of rotation thereof being perpendicular to the vertical axis (V), • the inlet openings are arranged asymmetrically with respect to the relevant vertical axis (V) of the containers and, owing to angled installation of each container of the rim block cage, are arranged at an installation angle (α) to the longitudinal central axis (M) of 1°-60°, preferably 5°-45°, particularly preferably 10°-30°, and so two different amounts of active ingredient can be released from the rim block cage, depending on the direction from which the flushing water impacts on the rim block cage, by positioning the rim block cage on opposite sides of the toilet bowl.
A method of non-destructive inspection of a test structure , the method comprising: determining a location of a probe relative to the test structure , wherein the determining includes non-contact capturing of a position of the probe and non-contact capturing of a position of the test structure , wherein the determining includes using an electronic camera to determine the relative location of the probe and the test structure , wherein the electronic camera is a user-worn camera and wherein using the electronic camera comprises wearing the electronic camera ; acquiring, with the probe , test data relating to the test structure ; and identifying a location on the test structure where the test data is acquired by associating the test data and the location of the probe relative to the test structure ; the method further comprising: visualizing the test data in relation to the test structure , the visualizing being performed at least partially concurrently with the acquiring test data; wherein the associating includes correlating a data stream including the test data and a data stream including the location of the probe . determining a location of a probe relative to the test structure , wherein the determining includes non-contact capturing of a position of the probe and non-contact capturing of a position of the test structure , wherein the determining includes using an electronic camera to determine the relative location of the probe and the test structure , wherein the electronic camera is a user-worn camera and wherein using the electronic camera comprises wearing the electronic camera ; acquiring, with the probe , test data relating to the test structure ; and
Chair for chairlifts, comprising a pivotable device which is pivotable into a closed position and into an open position, comprising a locking element which is connected to the device , a blocking element for the locking element , which blocking element is movable into at least one locking position and into a releasing position, and a control element which moves the blocking element from the locking position into the releasing position, characterized in that the control element is connected to the device .
A prosthetic device (100; 200) for implantation at a cardiac valve annulus, the prosthetic device (100; 200) comprising: an annular frame (102; 202; 302) constructed of a plastically-expandable material having an inflow end (103; 203), an outflow end (105; 205), at least four rows of circumferentially extending angled struts , and a plurality of axial frame members bridging two of the at least four rows of angled struts, wherein the plurality of axial frame members comprises a plurality of axially extending leaflet attachment members and a plurality of axial struts in a 1:1 ratio, the prosthetic device (100; 200) further comprising a leaflet structure (104; 204) positioned within the frame , the leaflet structure (104; 204) having a plurality of commissures that are secured to the frame at the leaflet attachment members , wherein each leaflet attachment member comprises a window frame portion which defines a commissure window , and wherein each leaflet attachment member and each axial strut extends only between those two rows of angled struts that are closest to the outflow end . an annular frame (102; 202; 302) constructed of a plastically-expandable material having an inflow end (103; 203), an outflow end (105; 205), at least four rows of circumferentially extending angled struts , and a plurality of axial frame members bridging two of the at least four rows of angled struts, wherein the plurality of axial frame members comprises a plurality of axially extending leaflet attachment members and a plurality of axial struts in a 1:1 ratio, the prosthetic device (100; 200) further comprising a leaflet structure (104; 204) positioned within the frame , the leaflet structure (104; 204) having a plurality of commissures that are secured to the frame at the leaflet attachment members , wherein each leaflet attachment member comprises a window frame portion which defines a commissure window , and wherein each leaflet attachment member and each axial strut extends only between those two rows of angled struts that are closest to the outflow end .
A compound of formula I: or a pharmaceutically acceptable salt thereof, wherein: R 1 is selected from -NH 2 , -NHD, or -ND 2 ; R 2 is selected from hydrogen or deuterium; R 3 and R 4 are -CD 3 ; and R 5 , R 6 , R 7 , and R 8 are each independently selected from hydrogen or deuterium. R 1 is selected from -NH 2 , -NHD, or -ND 2 ; R 2 is selected from hydrogen or deuterium; R 3 and R 4 are -CD 3 ; and R 5 , R 6 , R 7 , and R 8 are each independently selected from hydrogen or deuterium.
A method for in-place diagnosis of a rechargeable electric vehicle battery, comprising the following steps: discharging the battery in a motor of the vehicle, using an internal resistance of the motor as a resistive load; and measuring parameters of the battery during discharge to establish its state of health; characterized in that it comprises the following steps: estimating the temperature of the motor during discharge; and regulating the discharge current to stabilize the temperature of the motor at a constant admissible threshold (Td). discharging the battery in a motor of the vehicle, using an internal resistance of the motor as a resistive load; and measuring parameters of the battery during discharge to establish its state of health; estimating the temperature of the motor during discharge; and regulating the discharge current to stabilize the temperature of the motor at a constant admissible threshold (Td).
An apparatus, consisting of control electronics of a device, comprising feedback control electronics and motor electronics of an EC motor , and an interface between the control electronics and the motor electronics galvanically isolated therefrom, which comprises motor commutation electronics , wherein the interface is configured with exactly three connecting lines between the control electronics and the motor electronics for voltage supply and for transmission of a PWM signal, wherein one of the three connecting lines is provided as a bidirectional communication line, that is as a bidirectional communication connection between the feedback control electronics and the motor commutation electronics , to transmit a PWM signal for rotational speed feedback control of the EC motor , wherein only the control electronics has a mains (alternating) voltage connection and provides the mains voltage via a rectifier into a rectified supply voltage for the motor electronics .
Method for commanding an attitude control system of a space vehicle , the attitude control system comprising a maneuvering subsystem which comprises a plurality of reaction wheels, the attitude of the space vehicle being controlled during at least one preparation phase followed by an observation phase during which an image capture is performed; said method comprising, during the at least one preparation phase: - a preparation step , during which commands are issued to the maneuvering subsystem in order to control the attitude of the space vehicle , - followed by a step in which the reaction wheels are stopped, during which the speed of rotation of each reaction wheel is set to a substantially zero value prior to said observation phase, characterized in that , the reaction wheels of the maneuvering subsystem being configured such that there exists at least one vector of rotation speeds, not all equal to zero, called "maneuvering subsystem kernel ", for which the sum of the elementary angular momenta generated by each of said reaction wheels is substantially zero, the preparation step comprises, at the start of the at least one preparation phase, a sub-step of accelerating the reaction wheels around the maneuvering subsystem kernel . - a preparation step , during which commands are issued to the maneuvering subsystem in order to control the attitude of the space vehicle , - followed by a step in which the reaction wheels are stopped, during which the speed of rotation of each reaction wheel is set to a substantially zero value prior to said observation phase,
A contaminant resistant structure, comprising: a substrate having a substrate surface including a plurality of elevated surfaces and a plurality of depressed surfaces extending between said elevated surfaces on said substrate; at least one contaminant resistant material provided on said depressed surfaces, the at least one contaminant resistant material having one or more of antimicrobial, antiviral, antifungal, and biocidal properties; and a hydrophobic or oleophobic material provided on said elevated surfaces. a substrate having a substrate surface including a plurality of elevated surfaces and a plurality of depressed surfaces extending between said elevated surfaces on said substrate; at least one contaminant resistant material provided on said depressed surfaces, the at least one contaminant resistant material having one or more of antimicrobial, antiviral, antifungal, and biocidal properties; and a hydrophobic or oleophobic material provided on said elevated surfaces.
A process for producing a ceramic article, the process comprising the steps of: providing a printing sol, the printing sol comprising solvent, nano-sized particles, radiation curable monomer(s) and photoinitiator, the printing sol having a viscosity of less than 500 mPa ∗ s at 23°C, processing the printing sol as construction material in an additive manufacturing process to obtain a 3-dim article being in a gel state, the 3-dim article having a Volume A, transferring the 3-dim article being in a gel state to a 3-dim article being in a dry state, namely an aerogel or xerogel, applying a heat treatment step to obtain a sintered 3-dim ceramic article, the ceramic article having a Volume F, Volume A of the 3-dim article in a gel state being more than 500% of Volume F of the ceramic article in its sintered state. providing a printing sol, the printing sol comprising solvent, nano-sized particles, radiation curable monomer(s) and photoinitiator, the printing sol having a viscosity of less than 500 mPa ∗ s at 23°C, processing the printing sol as construction material in an additive manufacturing process to obtain a 3-dim article being in a gel state, the 3-dim article having a Volume A, transferring the 3-dim article being in a gel state to a 3-dim article being in a dry state, namely an aerogel or xerogel, applying a heat treatment step to obtain a sintered 3-dim ceramic article, the ceramic article having a Volume F,
An attachment device for securing a shelter to a rigid structure , the shelter comprising a flexible panel , and the attachment device comprising: - an anchor element for securing to a surface of the rigid structure , the anchor element comprising a suction disc , the suction disc comprising on opposite sides a first surface and a second surface , the first surface being configured to create a partial vacuum between the anchor element and said surface whereby, in use, the anchor element is secured to said surface, the anchor element further comprising a projection that extends in a direction away from the surface of the structure when the anchor element is secured to the structure ; - a clamping element including means for engaging with the projection to secure the clamping element to the anchor element ; and - a grip element located between at least a part of the anchor element and the clamping element , the projection extending through an aperture in the grip element , and characterised in that : the grip element comprises a dome-shaped disc to allow a central region of the first surface of the suction disc to be pulled in a direction away from said surface of the structure to create the partial vacuum while an edge region of the first surface remains in contact with said surface of the structure , and the grip element further comprises a radial flange that extends from a circumferential edge of the dome-shaped disc and, in use, a part of said flexible panel is clamped between the flange of the grip element and a part of the anchor element . - an anchor element for securing to a surface of the rigid structure , the anchor element comprising a suction disc , the suction disc comprising on opposite sides a first surface and a second surface , the first surface being configured to create a partial vacuum between the anchor element and said surface whereby, in use, the anchor element is secured to said surface, the anchor element further comprising a projection that extends in a direction away from the surface of the structure when the anchor element is secured to the structure ; - a clamping element including means for engaging with the projection to secure the clamping element to the anchor element ; and - a grip element located between at least a part of the anchor element and the clamping element , the projection extending through an aperture in the grip element ,
Stator module comprising a stator unit for driving a rotor of an electrical planar drive system , wherein the stator unit comprises a first stator sector and a second stator sector , wherein the first stator sector comprises, in a stator layer of the stator unit , conductor strips , which are extended in an elongate manner along a first direction and are arranged next to one another along a second direction which is oriented perpendicularly to the first direction , for interacting with drive magnets of the rotor , wherein the second stator sector comprises, in the stator layer , conductor strips , which are extended in an elongate manner along the first direction and are arranged next to one another along the second direction , for interacting with the drive magnets of the rotor , wherein the first stator sector is arranged adjacent to the second stator sector in the first direction , wherein the stator unit has a contact structure , wherein the contact structure comprises a first contact unit group and a second contact unit group , wherein the first contact unit group is electrically conductively connected to the conductor strips of the first stator sector , and wherein the second contact unit group is electrically conductively connected to the conductor strips of the second stator sector , characterized in that a stator surface extends over the entire top side of the stator unit and forms a surface of the stator unit , wherein the first stator sector and the second stator sector terminate flush with the stator surface on the outer sides and are arranged in a manner adjoining one another in the interior of the stator unit , wherein the contact structure is arranged on an inner edge of the first stator sector and on an inner edge of the second stator sector and is part of a contact arrangement , wherein the inner edge of the first stator sector and the inner edge of the second stator sector are arranged so as to bear against one another between the first stator sector and the second stator sector , and the contact arrangement can be contacted from the bottom side of the stator unit .
A combustion chamber comprising a body with a fuel supply duct for supplying natural gas fuel (F) into the body and a carrier air supply duct for supplying air (A) into the body , and common nozzles protruding from the outer surface of the carrier air supply duct , the fuel supply duct and the carrier air supply duct being connected to the common nozzles , the combustion chamber further comprising a lance that protrudes into the body , the lance having the common nozzles and housing the fuel supply duct and the carrier air supply duct , wherein the fuel supply duct is concentrically housed inside the carrier air supply duct , the fuel supply duct comprising apertures , each aperture having an axis coaxially with an axis of a common nozzle , the area of the apertures perpendicularly to the axes being smaller than the area of the common nozzles perpendicularly to the same axes , wherein the apertures are extending from the fuel supply duct towards the carrier air supply duct and passages are provided between the apertures and the common nozzles for carrier air to flow from the carrier air duct into the common nozzles , the combustion chamber further comprising an adjusting system , wherein the apertures , the passages and the common nozzles are configured such that a change in the fuel mass flow influences the air flow through the passage to achieve an automatic adjustment.
An injectable salted aqueous suspension of functional animal muscle tissue protein composition which can be injected into food when pumped through a syringe or by vacuum tumbling wherein said salted aqueous suspension of functional animal muscle tissue comprises sarcoplasmic proteins and myofibrillar proteins derived from animal muscle tissue obtained by the process comprising the steps of: a. comminuting animal muscle tissue to form comminuted animal muscle tissue, b. mixing said comminuted animal muscle tissue with a food grade alkaline composition to solubilize animal muscle protein thereby forming an aqueous basic solution of animal muscle protein having a pH between 10.5 and 12.5, c. then mixing said aqueous basic solution with a food grade acid composition to form an aqueous composition of animal muscle protein having a pH between 4.7 and 9.5, wherein said food grade acid is citric acid, ascorbic acid or phosphoric acid or mixtures thereof, d. then mixing said aqueous composition of step c with salt to form a salted aqueous composition of animal muscle protein, and e. then comminuting said salted aqueous composition of step d of animal muscle protein to form the injectable salted aqueous suspension of functional animal muscle tissue protein composition including sarcoplasmic proteins and myofibrillar proteins whereby said injectable salted aqueous suspension does not block the fluid pathway of the syringe when injected into food by pumping through a syringe or is not retained on the surface of the food by not penetrating the surface when injected into food by vacuum tumbling. a. comminuting animal muscle tissue to form comminuted animal muscle tissue, b. mixing said comminuted animal muscle tissue with a food grade alkaline composition to solubilize animal muscle protein thereby forming an aqueous basic solution of animal muscle protein having a pH between 10.5 and 12.5, c. then mixing said aqueous basic solution with a food grade acid composition to form an aqueous composition of animal muscle protein having a pH between 4.7 and 9.5, wherein said food grade acid is citric acid, ascorbic acid or phosphoric acid or mixtures thereof, d. then mixing said aqueous composition of step c with salt to form a salted aqueous composition of animal muscle protein, and e. then comminuting said salted aqueous composition of step d of animal muscle protein to form the injectable salted aqueous suspension of functional animal muscle tissue protein composition including sarcoplasmic proteins and myofibrillar proteins whereby said injectable salted aqueous suspension does not block the fluid pathway of the syringe when injected into food by pumping through a syringe or is not retained on the surface of the food by not penetrating the surface when injected into food by vacuum tumbling.