mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the control or regulation of a brake assembly , in particular a brake assembly of a rail vehicle, wherein the brake assembly comprises at least one first brake system characterised by a high safety level that fulfils the demands of rapid braking, and at least one second brake system characterised by a lower safety level, wherein after initiating a rapid braking operation (Step S10), first at least a second brake system is activated (Step S12) and thereafter at least a first brake system is activated (Step S26), if the braking effect produced by the brake assembly falls short of a threshold value (Step S18) characterised in that the said threshold value is dynamically adapted to a currently achievable braking effect of the brake systems (Step S24). wherein after initiating a rapid braking operation (Step S10), first at least a second brake system is activated (Step S12) and thereafter at least a first brake system is activated (Step S26), if the braking effect produced by the brake assembly falls short of a threshold value (Step S18) characterised in that the said threshold value is dynamically adapted to a currently achievable braking effect of the brake systems (Step S24).
Roll for guiding and/or spreading a running product web , wherein the roll comprises at least one supporting body , on the outer side of which there are provided receptacles for axially displaceably held slats that engage the product web , characterized in that at least one undercut groove , which can receive at least one functional component , is formed in the at least one supporting body between at least two of the slats .
An indicia reading device , comprising: an imaging subsystem comprising: a global shutter sensor configured to capture a plurality of first frames of image data; and a stereoscopic imager which comprises a left sensor and a right sensor separated at a baseline distance apart and is configured to capture a plurality of second frames of image data at a baseline distance apart to create three-dimensional images that comprise depth information of the decodable indicia; a memory in communication with the imaging subsystem capable of storing the plurality of first frames of image data and the plurality of second frames of image data; and a processor in communication with said memory, wherein: said processor is operative to decode a decodable indicia represented in at least one of the plurality of first frames of image data and the plurality of second frames of image data; and wherein said processor is further operative to: filter or deblur the decodable indicia based on a distance to the decodable indicia determined from the three-dimensional images; and verify the decodable indicia based on dimensions of the decodable indicia determined from the three-dimensional images. a global shutter sensor configured to capture a plurality of first frames of image data; and a stereoscopic imager which comprises a left sensor and a right sensor separated at a baseline distance apart and is configured to capture a plurality of second frames of image data at a baseline distance apart to create three-dimensional images that comprise depth information of the decodable indicia; a memory in communication with the imaging subsystem capable of storing the plurality of first frames of image data and the plurality of second frames of image data; and a processor in communication with said memory, wherein: said processor is operative to decode a decodable indicia represented in at least one of the plurality of first frames of image data and the plurality of second frames of image data; and wherein said processor is further operative to: filter or deblur the decodable indicia based on a distance to the decodable indicia determined from the three-dimensional images; and verify the decodable indicia based on dimensions of the decodable indicia determined from the three-dimensional images. said processor is operative to decode a decodable indicia represented in at least one of the plurality of first frames of image data and the plurality of second frames of image data; and wherein said processor is further operative to: filter or deblur the decodable indicia based on a distance to the decodable indicia determined from the three-dimensional images; and verify the decodable indicia based on dimensions of the decodable indicia determined from the three-dimensional images. filter or deblur the decodable indicia based on a distance to the decodable indicia determined from the three-dimensional images; and verify the decodable indicia based on dimensions of the decodable indicia determined from the three-dimensional images.
A parenteral composition, comprising a therapeutically effective amount of an eprinomectin and a vehicle comprising dimethylsulfoxide, and optionally other excipients.
A voltage detection integrated circuit comprising: a voltage detection circuit electrically connected to a plurality of cells to detect a cell voltage of a corresponding one of the plurality of cells; and a plurality of cell balancing switches (SW) configured to conduct or block a flow of a balancing current of a corresponding cell among the plurality of cells; a temperature sensor configured to detect an internal temperature of the voltage detection integrated circuit ; characterized by a controller configured to differently select a number of cell balancing switches (SW) that are simultaneously turned on depending on the internal temperature, and to turn on the selected switches (SW), when the internal temperature is below a first threshold value. a voltage detection circuit electrically connected to a plurality of cells to detect a cell voltage of a corresponding one of the plurality of cells; and a plurality of cell balancing switches (SW) configured to conduct or block a flow of a balancing current of a corresponding cell among the plurality of cells; a temperature sensor configured to detect an internal temperature of the voltage detection integrated circuit ; characterized by a controller configured to differently select a number of cell balancing switches (SW) that are simultaneously turned on depending on the internal temperature, and to turn on the selected switches (SW), when the internal temperature is below a first threshold value.
A process for dehydrating methanol to dimethyl ether product in the presence of a catalyst and a promoter, wherein the catalyst is at least one aluminosilicate zeolite, wherein: - the aluminosilicate zeolite is selected from: (i) a zeolite having a 2-dimensional framework structure comprising at least one channel having a 10-membered ring, and having a maximum free sphere diameter of at least 4.8 Angstroms; (ii) a zeolite having a 3-dimensional framework structure comprising at least one channel having a 10-membered ring; or (iii) a zeolite comprising at least one channel having a 12-membered ring; - the promoter is selected from one or more compounds of Formula I: wherein Y is selected from a C 1 -C 4 hydrocarbyl substituent, and wherein each of X and any or all of the Z's may independently be selected from hydrogen, halide, a substituted or unsubstituted hydrocarbyl substituent, or a compound of the formula -CHO, -CO 2 R, -COR, or -OR, where R is hydrogen or a substituted or unsubstituted hydrocarbyl substituent, and wherein the molar ratio of promoter to methanol is maintained at less than 1. - the aluminosilicate zeolite is selected from: (i) a zeolite having a 2-dimensional framework structure comprising at least one channel having a 10-membered ring, and having a maximum free sphere diameter of at least 4.8 Angstroms; (ii) a zeolite having a 3-dimensional framework structure comprising at least one channel having a 10-membered ring; or (iii) a zeolite comprising at least one channel having a 12-membered ring; - the promoter is selected from one or more compounds of Formula I: wherein Y is selected from a C 1 -C 4 hydrocarbyl substituent, and wherein each of X and any or all of the Z's may independently be selected from hydrogen, halide, a substituted or unsubstituted hydrocarbyl substituent, or a compound of the formula -CHO, -CO 2 R, -COR, or -OR, where R is hydrogen or a substituted or unsubstituted hydrocarbyl substituent, and wherein the molar ratio of promoter to methanol is maintained at less than 1. wherein Y is selected from a C 1 -C 4 hydrocarbyl substituent, and wherein each of X and any or all of the Z's may independently be selected from hydrogen, halide, a substituted or unsubstituted hydrocarbyl substituent, or a compound of the formula -CHO, -CO 2 R, -COR, or -OR, where R is hydrogen or a substituted or unsubstituted hydrocarbyl substituent, and wherein the molar ratio of promoter to methanol is maintained at less than 1.
An arrangement comprising a first furniture part in the form of a front panel , a second furniture part in the form of a drawer wall , a third furniture part in the form of a drawer strut , a fourth furniture part in the form of a wall element set onto a drawer wall , and with a connecting pin for connecting the drawer wall , the drawer strut and the wall element each individually to the front panel , wherein the connecting pin includes: - a fastening portion for fastening the connecting pin to the first furniture part , - a holding portion for connecting the connecting pin to the second, third or fourth furniture part , wherein the holding portion of the connecting pin includes a connecting portion facing towards the fastening portion , the connecting portion being in the form of a protrusion or a recess for connecting the second furniture part to the connecting pin in a form-locking manner, and a head portion spaced in a longitudinal direction (L) of the connecting pin by a neck portion , wherein in a condition in which the connecting pin is fixed to the first furniture part via the fastening portion , at least two different of the second, third and fourth furniture parts can be connected to the connecting pin by the connecting portion in a form-locking manner and/or by the head portion in a force-locking manner, wherein the drawer wall and the drawer strut and the wall element include at least one fastening device for fixing the front panel , wherein the fastening device includes at least one resilient or a spring-loaded locking element configured to be releasably connected, preferably locked, to the holding portion of the connecting pin . - a fastening portion for fastening the connecting pin to the first furniture part , - a holding portion for connecting the connecting pin to the second, third or fourth furniture part , wherein the holding portion of the connecting pin includes a connecting portion facing towards the fastening portion , the connecting portion being in the form of a protrusion or a recess for connecting the second furniture part to the connecting pin in a form-locking manner, and a head portion spaced in a longitudinal direction (L) of the connecting pin by a neck portion , wherein in a condition in which the connecting pin is fixed to the first furniture part via the fastening portion , at least two different of the second, third and fourth furniture parts can be connected to the connecting pin by the connecting portion in a form-locking manner and/or by the head portion in a force-locking manner,
A method of manufacturing an antenna, comprising: receiving a design for a traditionally manufactured tubular antenna identifying portions of the antenna design which are less than a minimum printable thickness of a selected additive manufacturing apparatus, modifying the design, including increasing the thickness of the identified portions and inserting a plurality of holes, and additively manufacturing an antenna according to the modified design. receiving a design for a traditionally manufactured tubular antenna identifying portions of the antenna design which are less than a minimum printable thickness of a selected additive manufacturing apparatus, modifying the design, including increasing the thickness of the identified portions and inserting a plurality of holes, and additively manufacturing an antenna according to the modified design.
A composite, radius filler noodle comprising: a core having a triangular cross-section configuration and first , second and third surfaces that extend along a length of the core; a plurality of pre-preg fabric first strips stacked on the core first surface, the plurality of first strips having lengths that extend completely along the core length; a plurality of pre-preg fabric second strips stacked on the core second surface, the plurality of second strips having lengths that extend completely along the core length; and, a plurality of pre-preg fabric third strips stacked on the core third surface, the plurality of third strips having lengths that extend completely along the core length; wherein: the plurality of first strips has increasing widths in the stack of first strips; the plurality of second strips has increasing widths in the stack of second strips; and the plurality of third strips has increasing widths in the stack of third strips. a core having a triangular cross-section configuration and first , second and third surfaces that extend along a length of the core; a plurality of pre-preg fabric first strips stacked on the core first surface, the plurality of first strips having lengths that extend completely along the core length; a plurality of pre-preg fabric second strips stacked on the core second surface, the plurality of second strips having lengths that extend completely along the core length; and, a plurality of pre-preg fabric third strips stacked on the core third surface, the plurality of third strips having lengths that extend completely along the core length; wherein: the plurality of first strips has increasing widths in the stack of first strips; the plurality of second strips has increasing widths in the stack of second strips; and the plurality of third strips has increasing widths in the stack of third strips. the plurality of first strips has increasing widths in the stack of first strips; the plurality of second strips has increasing widths in the stack of second strips; and the plurality of third strips has increasing widths in the stack of third strips.
A salt of (R) -9-(2,5-difluorophenethyl)-4-ethyl-2-methyl-1-oxa-4,9-diazaspiro[5.5]undecan-3-one, characterized in that it is in a solid form and in that it is selected from the group consisting of hydrochloride and fumarate salt.
A control node of a first network , comprising: - a first interface (107-1) towards a radio access node of the first network , - a second interface (107-2) towards a subscriber server node , - at least one processor (107-3) configured to receive, via the first interface (107-1), a connectivity message , the connectivity message including an identifier indicating an access point node of a second network and further including an identifier indicating a subscriber , wherein the at least one processor (107-3) is configured to check authorization of the subscriber to establish a packet data session with the second network via the access point node , wherein the at least one processor (107-3) is configured to send, via the second interface (107-2), a report message in response to said checking yielding failed authorization of the subscriber , wherein the at least one processor (107-3) is configured to receive, via the second interface (107-2), a policy message including a policy, wherein the policy includes an identifier indicating at least one candidate access point node for which said sending of the report message is requested. wherein the at least one processor (107-3) is configured to selective execute said sending of the report message depending on whether the connectivity message identifies one of the candidate access point nodes. - a first interface (107-1) towards a radio access node of the first network , - a second interface (107-2) towards a subscriber server node , - at least one processor (107-3) configured to receive, via the first interface (107-1), a connectivity message , the connectivity message including an identifier indicating an access point node of a second network and further including an identifier indicating a subscriber , wherein the at least one processor (107-3) is configured to check authorization of the subscriber to establish a packet data session with the second network via the access point node , wherein the at least one processor (107-3) is configured to send, via the second interface (107-2), a report message in response to said checking yielding failed authorization of the subscriber , wherein the at least one processor (107-3) is configured to receive, via the second interface (107-2), a policy message including a policy, wherein the policy includes an identifier indicating at least one candidate access point node for which said sending of the report message is requested. wherein the at least one processor (107-3) is configured to selective execute said sending of the report message depending on whether the connectivity message identifies one of the candidate access point nodes.
Device for transporting a load on motor vehicles comprising a connecting element to a tow hook installed on a motor vehicle, a frame connected to the connecting element and fastening devices on which the load is adapted to be fastened, said fastening devices being assembled sliding on the frame , the fastening devices being assembled sliding on guiding means , characterized in that the fastening devices are assembled sliding each on guiding means made on two arms of the frame , so that a single fastening device is connected sliding to two arms of the frame , and is adapted to slide along the direction of the arm .
An image segmentation method, performed by an electronic device, the method comprising: acquiring (S210) a to-be-processed image set, the to-be-processed image set comprising a plurality of to-be-processed images corresponding to different time points, wherein the plurality of to-be-processed images in the to-be-processed image set are obtained by acquiring information of a same tissue cross section at different consecutive time points; processing (S220) the to-be-processed image set in a time dimension based on the to-be-processed images and the time points corresponding to the to-be-processed images to extract a temporal dynamic image from the to-be-processed images; and extracting (S230) a target region feature from the temporal dynamic image by using an image segmentation model, to acquire a target region. acquiring (S210) a to-be-processed image set, the to-be-processed image set comprising a plurality of to-be-processed images corresponding to different time points, wherein the plurality of to-be-processed images in the to-be-processed image set are obtained by acquiring information of a same tissue cross section at different consecutive time points; processing (S220) the to-be-processed image set in a time dimension based on the to-be-processed images and the time points corresponding to the to-be-processed images to extract a temporal dynamic image from the to-be-processed images; and extracting (S230) a target region feature from the temporal dynamic image by using an image segmentation model, to acquire a target region.
An apparatus for converting a continuous-time input signal into a sampled and quantized output signal , comprising: an input line for accepting the continuous-time input signal ; a plurality of processing branches coupled to the input line , each of said processing branches including: (a) a continuous-time quantization-noise-shaping circuit , (b) a sampling/quantization circuit coupled to an output of the continuous-time quantization-noise-shaping circuit , and (c) a digital bandpass filter coupled to an output of the sampling/quantization circuit , wherein each of a plurality of said digital bandpass filters includes at least one adjustable parameter which, when adjusted, changes a bandwidth and/or a center frequency of the frequency passband of said digital bandpass filter ; and a combining circuit , coupled to outputs of a plurality of said processing branches , that combines signals on said outputs into the output signal , wherein the continuous-time input signal is a continuous-time, continuously variable input signal ; and each of a plurality of the continuous-time quantization-noise-shaping circuits includes an adjustable circuit component which, when adjusted, changes a frequency of a quantization-noise frequency-response minimum of said continuous-time quantization-noise-shaping circuit , wherein said minimum is set to correspond to the frequency passband of the digital bandpass filter in the same processing branch . an input line for accepting the continuous-time input signal ; a plurality of processing branches coupled to the input line , each of said processing branches including: (a) a continuous-time quantization-noise-shaping circuit , (b) a sampling/quantization circuit coupled to an output of the continuous-time quantization-noise-shaping circuit , and (c) a digital bandpass filter coupled to an output of the sampling/quantization circuit , wherein each of a plurality of said digital bandpass filters includes at least one adjustable parameter which, when adjusted, changes a bandwidth and/or a center frequency of the frequency passband of said digital bandpass filter ; and a combining circuit , coupled to outputs of a plurality of said processing branches , that combines signals on said outputs into the output signal , wherein the continuous-time input signal is a continuous-time, continuously variable input signal ; and each of a plurality of the continuous-time quantization-noise-shaping circuits includes an adjustable circuit component which, when adjusted, changes a frequency of a quantization-noise frequency-response minimum of said continuous-time quantization-noise-shaping circuit , wherein said minimum is set to correspond to the frequency passband of the digital bandpass filter in the same processing branch .
An implantable medical device (IMD) , comprising: a first differential amplifier including first differential inputs and a first output at which a first amplified difference signal is output; and a second differential amplifier including second differential inputs and a second output at which a second amplified difference signal is output, characterized in that the first and second differential amplifiers are configured to be enabled and auto-zeroed such that at all times at least one of the first and second differential amplifiers is enabled and not being auto-zeroed; and at any given time one of the first and second amplified difference signals is used to selectively enable a component of the IMD in response to one of the first and second differential amplifiers , which is enabled and not being auto-zeroed, detecting a predetermined signal within a frequency range. a first differential amplifier including first differential inputs and a first output at which a first amplified difference signal is output; and a second differential amplifier including second differential inputs and a second output at which a second amplified difference signal is output, characterized in that the first and second differential amplifiers are configured to be enabled and auto-zeroed such that at all times at least one of the first and second differential amplifiers is enabled and not being auto-zeroed; and at any given time one of the first and second amplified difference signals is used to selectively enable a component of the IMD in response to one of the first and second differential amplifiers , which is enabled and not being auto-zeroed, detecting a predetermined signal within a frequency range.