mhurhangee/patent-ind-claim-en huggingface dataset:
An end cover assembly for a battery cell , comprising: an end cover , provided with a first hole for injecting electrolyte; a sealing piece , configured to seal the first hole ; and a cover body , configured to cover at least part of the sealing piece , the cover body being rotatable relative to the end cover to realize detachable connection between the cover body and the end cover , wherein one of the sealing piece and the cover body is provided with a second hole , and the other one of the sealing piece and the cover body is provided with a boss ; and the boss is configured to be inserted into the second hole , and the boss and the second hole are relatively rotatable to realize rotatable connection between the sealing piece and the cover body . an end cover , provided with a first hole for injecting electrolyte; a sealing piece , configured to seal the first hole ; and a cover body , configured to cover at least part of the sealing piece , the cover body being rotatable relative to the end cover to realize detachable connection between the cover body and the end cover , wherein one of the sealing piece and the cover body is provided with a second hole , and the other one of the sealing piece and the cover body is provided with a boss ; and the boss is configured to be inserted into the second hole , and the boss and the second hole are relatively rotatable to realize rotatable connection between the sealing piece and the cover body .
An applicator (200/300) adapted to deliver a liquid vaccine composition to a canine or feline animal by oral administration; wherein the applicator is adapted to the canine or feline mouth, comprising a resilient and/or elongated reservoir defining a longitudinal axis (A'), an elongate, angled, hollow stem adapted to be inserted into the canine or feline animal's mouth, the stem comprising proximal and distal ends, the proximal end operably connected to and in fluid communication with the reservoir and the distal end adaptable to allow liquid to exit and enter the applicator (200/300); and wherein the applicator is adapted to sealably contain a carrier liquid of the liquid vaccine composition to be dispensed to the canine or feline animal; further wherein a portion of the stem is angled with respect to the longitudinal axis (A') and wherein the portion of the stem defines a second axis (B'), wherein the longitudinal axis (A') and the second axis (B') define an angle theta (θ) with respect to the longitudinal axis (A'), wherein theta is from about 15 to about 35 degrees, or from about 20 to about 30 degrees, or about 25 degrees; and further wherein the distal end (108/27) of the stem comprises two diametrically opposed tabs , which allow the distal end to remain fully opened and resist deformation during use. wherein the applicator is adapted to the canine or feline mouth, comprising a resilient and/or elongated reservoir defining a longitudinal axis (A'), an elongate, angled, hollow stem adapted to be inserted into the canine or feline animal's mouth, the stem comprising proximal and distal ends, the proximal end operably connected to and in fluid communication with the reservoir and the distal end adaptable to allow liquid to exit and enter the applicator (200/300); and wherein the applicator is adapted to sealably contain a carrier liquid of the liquid vaccine composition to be dispensed to the canine or feline animal; further wherein a portion of the stem is angled with respect to the longitudinal axis (A') and wherein the portion of the stem defines a second axis (B'), wherein the longitudinal axis (A') and the second axis (B') define an angle theta (θ) with respect to the longitudinal axis (A'), wherein theta is from about 15 to about 35 degrees, or from about 20 to about 30 degrees, or about 25 degrees; and further wherein the distal end (108/27) of the stem comprises two diametrically opposed tabs , which allow the distal end to remain fully opened and resist deformation during use.
A system for selecting a signal processing program to be executed by a signal processor in a hearing aid, the system comprising a signal processor and a single layer of neurons each having one or more neighbours and being arranged in a memory device, CHARACTERIZED IN THAT each neuron comprises a neuron vector comprising neuron parameters referring to a specific acoustic situation and a neuron label referring to a signal processing program associated with said specific acoustic situation, and in that the system comprises a sensor adapted to detect an external acoustic situation and to define a sensor vector comprising sensor parameters associated with said external acoustic situation, wherein the signal processor is adapted to calculate a vector difference between said sensor vector and each of said neuron vectors, to identify that neuron providing the smallest vector difference, and to select the signal processing program referred to by the neuron label of that neuron, and wherein said single layer of neurons is arranged as a self-organizing map (SOM), and said sensor comprises a first detector for detecting a signal level in one or more frequency bands and providing a first parameter for said sensor vector, and a second detector for detecting speech and providing a second parameter for said sensor vector.
Support head (16, 16a-f) for a ceiling support for a ceiling formwork , wherein the support head (16, 16a-f) comprises the following: a) a connecting area in which the support head (16, 16a-f) is connectable to a formwork support or is connected to the formwork support ; b) a support plane for supporting a formwork element of the ceiling formwork and/or a beam of the ceiling formwork , wherein the support plane is designed in the form of a surface of a support plate; c) guide tabs (26a-d, 30a-d) that protrude away from the connecting area , the guide tabs (26a-d, 30a-d) having a design that opens outwardly from the connecting area , characterized in first guide tabs (26a-d) on a first side of the support head (16, 16a-f) have a design, that starting from the connecting area in the radial direction is more widely opened, i.e. spread farther apart, than second guide tabs (30a-d) on a second side of the support head (16, 16a-f) situated opposite from the first side , wherein the first guide tabs (26a-d) and the second guide tabs (30a-d) form lateral guides of insertion openings of the support plane for the formwork element to be suspended in the guide tabs (26a-d, 30a-d) and subsequently swiveled out from the floor. a) a connecting area in which the support head (16, 16a-f) is connectable to a formwork support or is connected to the formwork support ; b) a support plane for supporting a formwork element of the ceiling formwork and/or a beam of the ceiling formwork , wherein the support plane is designed in the form of a surface of a support plate; c) guide tabs (26a-d, 30a-d) that protrude away from the connecting area , the guide tabs (26a-d, 30a-d) having a design that opens outwardly from the connecting area ,
Method for setting a conicity of a mould (1; 18) of a continuous casting plant, particularly slab continuous casting plant, during a casting process, comprising the steps: - measurement of temperature values along at least one central measuring path extending in a casting direction along an adjustably arranged mould wall (3; 19, 20); - measurement of temperature values along at least one edge-side measuring path extending in a casting direction along the adjustably arranged mould wall (3; 19, 20), wherein the edge-side measuring path extends between the central measuring path and a lateral edge of the mould wall (3; 19, 20) and a spacing of the edge-side measuring path from this lateral edge of the mould wall (3; 19, 20) is smaller than a spacing of the central measuring path from the other lateral edge of the mould wall (3; 19, 20); characterised by the steps: - determination of a central temperature distribution curve along the central measuring path from the temperature values measured along the central measuring path; - determination of an edge-side temperature distribution curve along the edge-side measuring path from the temperature values measured along the edge-side measuring path; - determination of a first area under the central temperature distribution curve and a second area under the edge-side temperature distribution curve; - determination of a difference between the second area and the first area; and - setting the conicity of the mould (1; 18) with consideration of the difference. - measurement of temperature values along at least one central measuring path extending in a casting direction along an adjustably arranged mould wall (3; 19, 20); - measurement of temperature values along at least one edge-side measuring path extending in a casting direction along the adjustably arranged mould wall (3; 19, 20), wherein the edge-side measuring path extends between the central measuring path and a lateral edge of the mould wall (3; 19, 20) and a spacing of the edge-side measuring path from this lateral edge of the mould wall (3; 19, 20) is smaller than a spacing of the central measuring path from the other lateral edge of the mould wall (3; 19, 20); - determination of a central temperature distribution curve along the central measuring path from the temperature values measured along the central measuring path; - determination of an edge-side temperature distribution curve along the edge-side measuring path from the temperature values measured along the edge-side measuring path; - determination of a first area under the central temperature distribution curve and a second area under the edge-side temperature distribution curve; - determination of a difference between the second area and the first area; and - setting the conicity of the mould (1; 18) with consideration of the difference.
A sensor assembly for an electrically adjustable piece of furniture with at least one actuator for adjusting an adjustable component of the piece of furniture and a control system for controlling the at least one actuator, the sensor assembly comprising - a light transmitter and a light receiver coupled to each other via an optical light path , wherein the light receiver is configured to provide a reception signal based on a received amount of light; - an aperture element which is configured to at least partially cover the light path and which is mounted in a movable manner with respect to the light path in such a way that a change in a position of the aperture element results in a change in the covering of the light path ; characterized by - an evaluation circuit configured to control an amount of light emitted from the light transmitter via a control signal that is generated based on minimizing a difference between the received signal and a reference signal, and to generate a deformation signal based on the control signal or on a signal derived from the control signal; - wherein the sensor assembly is configured to be mounted in the piece of furniture such that the aperture element converts a deformation or movement of the adjustable component into a change in the position of the aperture element relative to the light path . - a light transmitter and a light receiver coupled to each other via an optical light path , wherein the light receiver is configured to provide a reception signal based on a received amount of light; - an aperture element which is configured to at least partially cover the light path and which is mounted in a movable manner with respect to the light path in such a way that a change in a position of the aperture element results in a change in the covering of the light path ; characterized by - an evaluation circuit configured to control an amount of light emitted from the light transmitter via a control signal that is generated based on minimizing a difference between the received signal and a reference signal, and to generate a deformation signal based on the control signal or on a signal derived from the control signal; - wherein the sensor assembly is configured to be mounted in the piece of furniture such that the aperture element converts a deformation or movement of the adjustable component into a change in the position of the aperture element relative to the light path .
An electrical discharge machine for processing a work that is immersed in a process liquid, comprising: a process tank for storing a process liquid into which a work is to be immersed; a control unit , characterized in that the control unit comprises: a liquid level information acquiring unit for acquiring information that becomes an index of the level of the process liquid; and an axis feeding property changing unit for changing the axis feeding properties in accordance with the information acquired by said liquid level information acquiring unit, wherein the index of said process liquid level is the coordinate value along the axis of an electrode or an guide for guiding an electrode, and in the case where the coordinate value along the Z axis is higher than a predetermined height, as opposed to the case where the coordinate value along the Z axis is lower than the predetermined height, said axis feeding property changing unit performs at least one of: reducing the absolute value of the axis feeding speed, reducing the absolute value of the axis feeding acceleration, or reducing the absolute value of the axis feeding jerk. a process tank for storing a process liquid into which a work is to be immersed; a control unit , characterized in that the control unit comprises: a liquid level information acquiring unit for acquiring information that becomes an index of the level of the process liquid; and an axis feeding property changing unit for changing the axis feeding properties in accordance with the information acquired by said liquid level information acquiring unit, wherein a liquid level information acquiring unit for acquiring information that becomes an index of the level of the process liquid; and an axis feeding property changing unit for changing the axis feeding properties in accordance with the information acquired by said liquid level information acquiring unit, wherein the index of said process liquid level is the coordinate value along the axis of an electrode or an guide for guiding an electrode, and in the case where the coordinate value along the Z axis is higher than a predetermined height, as opposed to the case where the coordinate value along the Z axis is lower than the predetermined height, said axis feeding property changing unit performs at least one of: reducing the absolute value of the axis feeding speed, reducing the absolute value of the axis feeding acceleration, or reducing the absolute value of the axis feeding jerk.
activating a cell from a deactivated state based on a cell activation request from a network element, the cell being a primary secondary cel the method is characterised by entering , regardless of a discontinuous reception configuration, a no discontinuous reception mode in the cell; and listening , while in the no discontinuous reception mode, for downlink scheduling in the cell for a period of time. activating a cell from a deactivated state based on a cell activation request from a network element, the cell being a primary secondary cel the method is characterised by entering , regardless of a discontinuous reception configuration, a no discontinuous reception mode in the cell; and listening , while in the no discontinuous reception mode, for downlink scheduling in the cell for a period of time.
An image forming system for forming an image and a crease on a media , characterised by comprising: an impression member to receive an impression media ; a print unit to selectively form an image and a crease formation pattern ; an intermediate transfer member having an image forming blanket , wherein the image forming blanket is arranged to: (i) receive and transfer the crease formation pattern to the impression media ; (ii) press a media against the impression member to transfer the image onto the media ; (iii) establish contact between the media and the crease formation pattern on the impression media to form a corresponding crease on the media , along which the media is to be folded. an impression member to receive an impression media ; a print unit to selectively form an image and a crease formation pattern ; an intermediate transfer member having an image forming blanket , (i) receive and transfer the crease formation pattern to the impression media ; (ii) press a media against the impression member to transfer the image onto the media ; (iii) establish contact between the media and the crease formation pattern on the impression media to form a corresponding crease on the media , along which the media is to be folded.
A computer-implemented method for processing object designs in engineering by generating a set of shape descriptors { F s , s = 1, ..., N s } for a set of two or three dimensional geometric shapes, comprising the following steps: - reading a set { R n } of N feature locations, wherein R n is the position vector of a feature location having the length R n = | R n | and n = 1, ..., N (S1); - reading (S2) a set { k m } of M wave numbers, wherein m = 1, ..., M ; - reading (S3) γ ∈ , which is a parameter controlling a degree of locality of the features; - for each shape s calculating (S4) for each of the N feature locations R n and M wave numbers k m a feature descriptor f s ( n , m ) according to the rule f s n m = ‖ R → n ‖ α γ e − ik m R n ∫ shape s d 3 s → e ik m s → − R → n ‖ s → − R → n ‖ α γ wherein the integral is summing all contributions from each point of the shape s, s is a position vector of points of the shape, i is the imaginary unit, ‖ x → ‖ α = ∑ i x i α 1 / α is the L α norm of the vector x , and C is a normalization constant which can be chosen either C = 1 or to normalize the feature to the absolute volume or surface area of the shape: C = 1/∫ shape s d 3 s .; - assigning (S5) the calculated feature descriptors f s ( n,m ) to an M · N dimensional vector of features as the shape descriptor F s according to F → s = f s n = 1 , m = 1 , f s n = 1 , m = 2 , ... , f s n = N , m = M T and - outputting (S6) the set of shape descriptors { F s , s = 1, ..., N s } for further processing. - reading a set { R n } of N feature locations, wherein R n is the position vector of a feature location having the length R n = | R n | and n = 1, ..., N (S1); - reading (S2) a set { k m } of M wave numbers, wherein m = 1, ..., M ; - reading (S3) γ ∈ , which is a parameter controlling a degree of locality of the features; - for each shape s calculating (S4) for each of the N feature locations R n and M wave numbers k m a feature descriptor f s ( n , m ) according to the rule f s n m = ‖ R → n ‖ α γ e − ik m R n ∫ shape s d 3 s → e ik m s → − R → n ‖ s → − R → n ‖ α γ wherein the integral is summing all contributions from each point of the shape s, s is a position vector of points of the shape, i is the imaginary unit, ‖ x → ‖ α = ∑ i x i α 1 / α is the L α norm of the vector x , and C is a normalization constant which can be chosen either C = 1 or to normalize the feature to the absolute volume or surface area of the shape: C = 1/∫ shape s d 3 s .; s is a position vector of points of the shape, i is the imaginary unit, ‖ x → ‖ α = ∑ i x i α 1 / α is the L α norm of the vector x , and C is a normalization constant which can be chosen either C = 1 or to normalize the feature to the absolute volume or surface area of the shape: C = 1/∫ shape s d 3 s .; - assigning (S5) the calculated feature descriptors f s ( n,m ) to an M · N dimensional vector of features as the shape descriptor F s according to F → s = f s n = 1 , m = 1 , f s n = 1 , m = 2 , ... , f s n = N , m = M T and - outputting (S6) the set of shape descriptors { F s , s = 1, ..., N s } for further processing.
A metal particle comprising an outer shell and a core part , the core part containing a metal or an alloy, or an intermetallic compound; the outer shell covering the core part , the core part containing Sn or a Sn alloy or an intermetallic compound of Cu and Sn represented by Cu x Sn y ; and the metal particle having a particle size within a range of 1 μm to 20 μm, characterized by the outer shell being a single shell and containing an intermetallic compound of Sn and Cu; and the whole surface area of the core part being covered with the outer shell .
A plant molded product molding process comprising the following steps: producing paper pulp based on plants as raw material; obtaining high consistency paper pulp by adding water into the raw material of the paper pulp and crushing a mixture thereof, and obtaining paper seriflux via the high consistency paper pulp being diluted with water; obtaining high consistency plant seriflux by adding water into plant raw materials and then crushing and wall-breaking a mixture thereof, and obtaining plant seriflux via the high consistency plant seriflux being diluted with water; dehydrating the paper seriflux to form a paper pulp enveloping layer of a molded product; dehydrating the plant seriflux to form a plant pulp layer of the molded product; fitting the paper pulp enveloping layer with the plant pulp layer, performing state-of-change on the non-cellulosic material of the plant pulp layer and then migrating the plant pulp layer after being performed state-of-change toward the pulp enveloping layer by changing the temperature and the pressure of the molded product, so as to combine and mold the plant pulp layer with the paper pulp enveloping layer. producing paper pulp based on plants as raw material; obtaining high consistency paper pulp by adding water into the raw material of the paper pulp and crushing a mixture thereof, and obtaining paper seriflux via the high consistency paper pulp being diluted with water; obtaining high consistency plant seriflux by adding water into plant raw materials and then crushing and wall-breaking a mixture thereof, and obtaining plant seriflux via the high consistency plant seriflux being diluted with water; dehydrating the paper seriflux to form a paper pulp enveloping layer of a molded product; dehydrating the plant seriflux to form a plant pulp layer of the molded product; fitting the paper pulp enveloping layer with the plant pulp layer, performing state-of-change on the non-cellulosic material of the plant pulp layer and then migrating the plant pulp layer after being performed state-of-change toward the pulp enveloping layer by changing the temperature and the pressure of the molded product, so as to combine and mold the plant pulp layer with the paper pulp enveloping layer.