mhurhangee/ep-ind-claims huggingface dataset:
A method of transferring a multi-mode patient monitoring device between radio access technology, RAT, networks, comprising: establishing a first communication link between a multi-mode patient monitoring device and a first access point (12, 16, 72) over a first RAT network, RAT-1, wherein the multi-mode patient monitoring device communicates with a hospital Internet protocol, IP, network via the first access point and wherein the first access point is a single-mode access point capable of communicating over the first RAT network, RAT-1; collecting, with a scanning device (14, 54, 74, 102) located remotely from the multi-mode patient monitoring device, candidate network information regarding one or more other RAT-2 candidate networks over which the multi-mode patient monitoring device is capable of communicating with the hospital IP network; transmitting the candidate network information from the scanning device (14, 54, 74, 102) to the multi-mode patient monitoring device via the first access point; selecting a second access point from the one or more other RAT-2 candidate networks; initiating a handover by the multi-mode patient monitoring device from the first access point to the second access point (22, 24, 26) to communicate with the hospital IP network; and characterized in that the method further comprises pairing the first access point with the scanning device (74, 102), wherein the collected candidate network information is transmitted to the patient monitor device in a beacon signal emitted periodically from the first access point (16, 72). establishing a first communication link between a multi-mode patient monitoring device and a first access point (12, 16, 72) over a first RAT network, RAT-1, wherein the multi-mode patient monitoring device communicates with a hospital Internet protocol, IP, network via the first access point and wherein the first access point is a single-mode access point capable of communicating over the first RAT network, RAT-1; collecting, with a scanning device (14, 54, 74, 102) located remotely from the multi-mode patient monitoring device, candidate network information regarding one or more other RAT-2 candidate networks over which the multi-mode patient monitoring device is capable of communicating with the hospital IP network; transmitting the candidate network information from the scanning device (14, 54, 74, 102) to the multi-mode patient monitoring device via the first access point; selecting a second access point from the one or more other RAT-2 candidate networks; initiating a handover by the multi-mode patient monitoring device from the first access point to the second access point (22, 24, 26) to communicate with the hospital IP network; and characterized in that the method further comprises pairing the first access point with the scanning device (74, 102), wherein the collected candidate network information is transmitted to the patient monitor device in a beacon signal emitted periodically from the first access point (16, 72).
A computer implemented method for generating an output image by reducing the size of an input image, comprising the following steps: a. Determine for a pixel location (i,j) in said output image a corresponding area xy in said input image, b. Fetch the pixel values in said input image area xy, c. Calculate an output pixel value D ij for said pixel location (i,j) using a size reducing algorithm, d. Insert D ij in the output image, e. Repeat steps a to d for each pixel location (i,j) in said output image, characterized in that: said value Di,j is obtained by adding to a value A obtained by low pass filtering the pixel values of said input image area, a value obtained by amplifying a value MED which represents the pixel value in said input image area that most deviates from said value A with a significance factor SF, said significance factor being a function of the relative excentricity RE that is obtained as the ratio MED/SD whereby SD is a measure for the local noise-level in the input image and is obtained as the standard deviation of the image data in a spatially associated larger region surrounding area x,y. a. Determine for a pixel location (i,j) in said output image a corresponding area xy in said input image, b. Fetch the pixel values in said input image area xy, c. Calculate an output pixel value D ij for said pixel location (i,j) using a size reducing algorithm, d. Insert D ij in the output image, e. Repeat steps a to d for each pixel location (i,j) in said output image, said value Di,j is obtained by adding to a value A obtained by low pass filtering the pixel values of said input image area, a value obtained by amplifying a value MED which represents the pixel value in said input image area that most deviates from said value A with a significance factor SF, said significance factor being a function of the relative excentricity RE that is obtained as the ratio MED/SD whereby SD is a measure for the local noise-level in the input image and is obtained as the standard deviation of the image data in a spatially associated larger region surrounding area x,y.
Vibratory tamping machine for compacting a ballast bed of a track having - a vibration mechanism, - an electric drive motor for driving the vibration mechanism, - at least one handle (13, 14, 17) for holding the vibratory tamping machine, and - a vibration decoupling device for the vibration decoupling of the at least one handle (13, 14, 17) and the vibration mechanism, wherein the vibration mechanism and the electric drive motor are arranged on a working side of a decoupling plane formed by the vibration decoupling device, wherein the decoupling plane separates the working side from an operating side, characterized in that a rechargeable battery for supplying the electric drive motor with electric power is arranged on the operating side of the decoupling plane. - a vibration mechanism, - an electric drive motor for driving the vibration mechanism, - at least one handle (13, 14, 17) for holding the vibratory tamping machine, and - a vibration decoupling device for the vibration decoupling of the at least one handle (13, 14, 17) and the vibration mechanism, wherein the vibration mechanism and the electric drive motor are arranged on a working side of a decoupling plane formed by the vibration decoupling device, wherein the decoupling plane separates the working side from an operating side,
Method for establishing a vacuum structure for processing a fibre-composite semi-finished product having a non-planar surface so as to form a cured fibre-composite component, comprising the following method steps: - positioning the fibre-composite semi-finished product on a moulding face of a tool such that the non-planar surface of the fibre-composite semi-finished product faces away from the moulding face; - covering the non-planar surface of the fibre-composite semi-finished product by applying an air-tight film, and sealing the film in relation to the moulding face of the tool, wherein the application of the film is carried out by means of a die formed from a flexible material, said die having a die face on which the film is held; characterized in that the die is provided by a mechanically flexible material which configures at least the die face and which has an area-specific weight of less than 100 kg/m 2, in particular less than 60 kg/m 2, and which has a variability of a die face diameter by at least a factor of 1.1, in particular by at least a factor of 1.5, said variability of said die face diameter being created by a variation in curvature. - positioning the fibre-composite semi-finished product on a moulding face of a tool such that the non-planar surface of the fibre-composite semi-finished product faces away from the moulding face; - covering the non-planar surface of the fibre-composite semi-finished product by applying an air-tight film, and sealing the film in relation to the moulding face of the tool, wherein the application of the film is carried out by means of a die formed from a flexible material, said die having a die face on which the film is held;
A fumaric acid diester-cinnamic acid ester-based copolymer, comprising: from 50 to 98.5 mol% of a diisopropyl fumarate residue unit; from 1 to 49.5 mol% of a cinnamic acid ester residue unit having an alkyl group with a carbon number of 1 to 6; and from 0.01 to 0.5 mol% of a residue unit of a polyfunctional acrylate having a urethane bond or an ester bond. from 50 to 98.5 mol% of a diisopropyl fumarate residue unit; from 1 to 49.5 mol% of a cinnamic acid ester residue unit having an alkyl group with a carbon number of 1 to 6; and from 0.01 to 0.5 mol% of a residue unit of a polyfunctional acrylate having a urethane bond or an ester bond.
An implant comprising: a body portion configured to contact patient tissue; a microchip; and a plurality of sensors arranged on the implant body and connected to said microchip; wherein at least one sensor is configured to receive physical stimulus from a portion of the implant or the patient's tissue, wherein the implant is a bone plate having a number of holes configured and adapted to receive fasteners, such as screws, characterized in that the sensors are positioned around the holes. a body portion configured to contact patient tissue; a microchip; and a plurality of sensors arranged on the implant body and connected to said microchip; wherein at least one sensor is configured to receive physical stimulus from a portion of the implant or the patient's tissue, wherein the implant is a bone plate having a number of holes configured and adapted to receive fasteners, such as screws, characterized in that the sensors are positioned around the holes.
Door for a motor vehicle, in particular for a pick-up, comprising a first structure comprising connection elements in the lower part which are designed for fitting of the door on a motor vehicle, characterized in that the door comprises a second structure which is fitted such as to be movable vertically relative to the first structure of the door, the second structure being in the form of a wall, which can occupy a first, low position, in which it is substantially totally superimposed on the first structure, in order to close an opening, and can occupy a second, high position, in which it opens up at least partly a space at the level of the first structure, in order to open the door at least partly.
Distribution machine, in particular a fertilizer spreader, comprising a storage container, at least one driven metering device arranged in a lower region of the storage container, and at least one self-supporting sieve-like cover (5A, 5B) arranged above the metering device in the storage container, characterized in that the sieve-like cover (5A, 5B) is formed of a thermoplastic plastics material, and that the sieve-like cover (5A, 5B) is substantially formed by upright support webs and beam-like sieve elements, the height of the support webs increasing from the edge of the sieve-like cover (5A, 5B) toward the center.
Polyolefin composition comprising (a) a heterophasic propylene copolymer (HECO) comprising a polypropylene, which is a random propylene copolymer (R-PP) or a propylene homopolymer (H-PP), and an elastomeric propylene copolymer, wherein the heterophasic propylene copolymer (HECO) has a melt flow rate MFR 2 (230 °C, as determined according to the experimental part) of at least 5 g/10min, and (b) a polyethylene having a density of at least 935 kg/m 3, and a melt flow rate MFR 5 (190 °C, as determined according to the experimental part) of less than 1.5 g/10min. (a) a heterophasic propylene copolymer (HECO) comprising a polypropylene, which is a random propylene copolymer (R-PP) or a propylene homopolymer (H-PP), and an elastomeric propylene copolymer, wherein the heterophasic propylene copolymer (HECO) has a melt flow rate MFR 2 (230 °C, as determined according to the experimental part) of at least 5 g/10min, and a polypropylene, which is a random propylene copolymer (R-PP) or a propylene homopolymer (H-PP), and an elastomeric propylene copolymer, wherein the heterophasic propylene copolymer (HECO) has a melt flow rate MFR 2 (230 °C, as determined according to the experimental part) of at least 5 g/10min, and (b) a polyethylene having a density of at least 935 kg/m 3, and a melt flow rate MFR 5 (190 °C, as determined according to the experimental part) of less than 1.5 g/10min.
Hob with a household appliance apparatus with at least one touch-sensitive sensor field with at least one touch-sensitive sensor element (60, 62; 68, 70, 72; 76) for acquiring a touch position on the sensor field and with a control unit for generating at least one control signal as a function of the acquired touch position, wherein the control unit is provided, in at least one operating mode, to determine a movement characteristic variable from a temporal sequence of acquired touch positions and to configure the control signal as a function of the determined movement characteristic variable, wherein the movement characteristic variable is formed by a movement speed (v), wherein, in at least one operating state of the control unit, the control signal at least initiates a repeated incrementing or a repeated decrementing of a manipulated variable, wherein the control unit is provided to predefine an absolute step size (ΔS1, ΔS2, ΔS3) of the repeated incrementing or the repeated decrementing of the manipulated variable as a function of an absolute value of the movement characteristic variable determined by the control unit, characterised in that the sensor field has a maximum linear extension (64; 78) of a maximum of 70 millimetres between touch-sensitive parts of the sensor field for acquiring the touch position, and wherein the control unit is provided, when at least one predetermined limit value of the manipulated variable is approached, to modify the absolute step size (ΔS1, ΔS2, ΔS3) as a function of a spacing between an instantaneous value of the manipulated variable and the predetermined limit value of the manipulated variable.
Device for determining brightness configured to determine a relative brightness of a plurality of hair fibres, or more specifically, of a hair strand, wherein the device for determining brightness comprises: - a receiving surface configured to receive the plurality of hair fibres, or more specifically, the hair strand; - an optical measuring element configured to determine the relative brightness of hair fibres received on the receiving surface; - an alignment element configured to align the plurality of hair fibres, or more specifically, the hair strand, when the plurality of hair fibres, or more specifically the hair strand, is positioned on the receiving surface; - a tensioning element configured to tension the plurality of hair fibres, or more specifically the hair strand, on said receiving surface; - a concealing element configured to conceal at least partially the optical measuring element from ambient light when the plurality of hair fibres, or more specifically the hair strand, is positioned on the receiving surface, characterised in that the concealing element is movable between an open position, wherein the optical measuring element is not protected from ambient light by the concealing element, and a closed position, wherein the optical measuring element is protected from ambient light by the concealing element. - a receiving surface configured to receive the plurality of hair fibres, or more specifically, the hair strand; - an optical measuring element configured to determine the relative brightness of hair fibres received on the receiving surface; - an alignment element configured to align the plurality of hair fibres, or more specifically, the hair strand, when the plurality of hair fibres, or more specifically the hair strand, is positioned on the receiving surface; - a tensioning element configured to tension the plurality of hair fibres, or more specifically the hair strand, on said receiving surface; - a concealing element configured to conceal at least partially the optical measuring element from ambient light when the plurality of hair fibres, or more specifically the hair strand, is positioned on the receiving surface, characterised in that the concealing element is movable between an open position, wherein the optical measuring element is not protected from ambient light by the concealing element, and a closed position, wherein the optical measuring element is protected from ambient light by the concealing element.
A connector arrangement, comprising: an elongate member, said elongate member comprising at least two electrically conducting areas (11, 12, 17) on its outer surface, said at least two electrically conducting areas (11, 12, 17) being insulated from each other and forming a first connector, and a radio frequency connector (50, 51) being arranged inside said elongate member and being accessible from an end face of said radio frequency connector, said radio frequency connector being configured to be usable independently of said first connector, wherein said radio frequency connector comprises a first contact element surrounded by a second contact element, wherein said first contact element is chosen from the group comprising a contact pin and a contact channel, and said second contact element is a sleeve in case the first contact element is a contact pin and a cylindrical member in case the first contact element is a contact channel, characterized in that the first connector is an audio connector chosen from the group comprising a 2.5 mm audio connector, a 3.5 mm audio connector, a tip sleeve connector, a tip ring sleeve connector and a tip ring ring sleeve connector. an elongate member, said elongate member comprising at least two electrically conducting areas (11, 12, 17) on its outer surface, said at least two electrically conducting areas (11, 12, 17) being insulated from each other and forming a first connector, and a radio frequency connector (50, 51) being arranged inside said elongate member and being accessible from an end face of said radio frequency connector, said radio frequency connector being configured to be usable independently of said first connector, wherein said radio frequency connector comprises a first contact element surrounded by a second contact element, wherein said first contact element is chosen from the group comprising a contact pin and a contact channel, and said second contact element is a sleeve in case the first contact element is a contact pin and a cylindrical member in case the first contact element is a contact channel, characterized in that the first connector is an audio connector chosen from the group comprising a 2.5 mm audio connector, a 3.5 mm audio connector, a tip sleeve connector, a tip ring sleeve connector and a tip ring ring sleeve connector.
A piece of sportswear with at least one controlled temperature zone (10.1,..., 10.6) comprising a textile fabric structure (11.1,..., 11.6), which is locally shirred over tension zones (15.1,..., 15.6) into webs, wherein the webs (14.1,..., 14.6) are designed to contact the skin of the wearer on the inner side of the fabric structure (11.1,..., 11.6), wherein inner air channels (13.1,..., 13.6) are formed between adjacent webs (14.1,..., 14.6), wherein a respective at least one channel is formed on the rear face of the webs (14.1,..., 14.6) on the shirred fabric structure (11.1,..., 11.6), and forms an outer air channel (18.1,..., 18.6), and wherein several webs (14.1,..., 14.6) are arranged one over the other in the controlled temperature zone (10.1,..., 10.6), characterized in that - a plurality of isolated controlled temperature elements (12.1,..., 12.6) are arranged in the controlled temperature zone (10.1,..., 10.6), and contain short webs (14.1,..., 14.6) that are separated from each other by lateral separation zones (16.1,..., 16.6), - adjacent inner air channels (13.1,..., 13.6) on the inner side of the fabric structure (11.1,..., 11.6) are connected with each other by the separation zones (16.1,..., 16.6), and - the separation zones (16.1,..., 16.6) between the controlled temperature elements (12.1,..., 12.6) are laterally offset to each other, such that the controlled temperature elements (12.1,..., 12.6) at least partially overlap in relation to the longitudinal extension of the vertical body axis. - a plurality of isolated controlled temperature elements (12.1,..., 12.6) are arranged in the controlled temperature zone (10.1,..., 10.6), and contain short webs (14.1,..., 14.6) that are separated from each other by lateral separation zones (16.1,..., 16.6), - adjacent inner air channels (13.1,..., 13.6) on the inner side of the fabric structure (11.1,..., 11.6) are connected with each other by the separation zones (16.1,..., 16.6), and - the separation zones (16.1,..., 16.6) between the controlled temperature elements (12.1,..., 12.6) are laterally offset to each other, such that the controlled temperature elements (12.1,..., 12.6) at least partially overlap in relation to the longitudinal extension of the vertical body axis.
A grooming device comprising: a. a handle comprising a proximal end and a distal end, the handle comprising; i. a displacement sensor, and ii. a power source, the power source providing power to the displacement sensor; b. an implement connecting structure comprising a connection element and an eject element, the implement connecting structure being pivotably connected to the proximal end of the handle about a first handle axis, and the eject element being moveable within the implement connecting structure along a second handle axis, the implement connecting structure further comprising; i. a location element, the location element being pivotably connected to the eject element such that as the implement connecting structure moves about the first handle axis the location element remains stationary relative to the handle and as the eject element moves along the second handle axis the location element is displaced relative to the handle and the displacement sensor detects displacement of the location element; and c. a grooming implement connected to the implement connecting structure. a. a handle comprising a proximal end and a distal end, the handle comprising; i. a displacement sensor, and ii. a power source, the power source providing power to the displacement sensor; i. a displacement sensor, and ii. a power source, the power source providing power to the displacement sensor; b. an implement connecting structure comprising a connection element and an eject element, the implement connecting structure being pivotably connected to the proximal end of the handle about a first handle axis, and the eject element being moveable within the implement connecting structure along a second handle axis, the implement connecting structure further comprising; i. a location element, the location element being pivotably connected to the eject element such that as the implement connecting structure moves about the first handle axis the location element remains stationary relative to the handle and as the eject element moves along the second handle axis the location element is displaced relative to the handle and the displacement sensor detects displacement of the location element; and i. a location element, the location element being pivotably connected to the eject element such that as the implement connecting structure moves about the first handle axis the location element remains stationary relative to the handle and as the eject element moves along the second handle axis the location element is displaced relative to the handle and the displacement sensor detects displacement of the location element; and c. a grooming implement connected to the implement connecting structure.