mhurhangee/ep-ind-claims huggingface dataset:
Method operated by a feedback radio node in a wireless communication network, the method comprising transmitting feedback signaling to a signaling radio node (10, 100) based on a received control information message, the received control information message comprising a range indication indicating a range of subject signalings the feedback signaling pertains to, wherein the control information message indicates a range of reception opportunities for scheduling assignments associated to the subject signalings and wherein the control information message indicates an anchor downlink assignment indicator A, a lower assignment indicator M and an upper assignment indicator N.
Dishwasher machine (1;100;110) comprising a washing column (3;300) consisting of a vertical treatment duct (4;400) coaxially mounted on which is a container (5; 500) for the dishes provided with a rotating support (58;510) for the dishes, a tank for a washing and rinsing liquid connected to the bottom of said column and provided with a heating element, a first filtering device connected - on one side - to said tank and - on another side - to a high-pressure pump, a second reverse osmosis filtering device connected - on one side - to said pump and - on another side - to said treatment duct (4;400), a blower connected to said duct (4;400), and a mechanism (17;170) for driving said support (58; 510) for dishes in rotation, wherein said second filtering device is connected to said treatment duct (4;400) through a first (11;120) and a second duct, wherein said treatment duct (4; 400) comprises three longitudinal portions, a first portion (14;409) which receives the washing liquid, which is concentrated liquid containing particles, coming from the first duct (11;120), a second portion (15;410) which receives the rinsing liquid, which is permeate pure liquid, coming from the second duct and a third portion (16;408) which receives air from the blower. - to said pump and - on another side - to said treatment duct (4;400), a blower connected to said duct (4;400), and a mechanism (17;170) for driving said support (58; 510) for dishes in rotation, wherein said second filtering device is connected to said treatment duct (4;400) through a first (11;120) and a second duct, wherein said treatment duct (4; 400) comprises three longitudinal portions, a first portion (14;409) which receives the washing liquid, which is concentrated liquid containing particles, coming from the first duct (11;120), a second portion (15;410) which receives the rinsing liquid, which is permeate pure liquid, coming from the second duct and a third portion (16;408) which receives air from the blower.
A medical device (100, 100') comprising: a hub (110, 110') including: a hub housing including a passage from a proximal end of the hub housing to a distal end of the hub housing; a valve (130, 130') disposed within the hub, the valve configured to allow passage of an insertable device through the valve while inhibiting leakage of fluid from the valve; a cap (140, 140') engaged to the hub housing, the cap including an opening (142, 142') therethrough sized and shaped to allow passage of the insertable device through the opening, the opening allowing access to the passage of the hub housing; and an angled sidewall (144, 144') disposed within the hub, the angled sidewall being configured to radially compress an outside edge of the valve to retain and deform the valve into a curved shape; and a sheath extending distally from the distal end of the hub housing, the sheath including a lumen through the sheath, the lumen being fluidly coupled to the passage of the hub housing; characterized in that: a center of the valve (130, 130') extends more distally or more proximally than the outside edge of the valve. a hub (110, 110') including: a hub housing including a passage from a proximal end of the hub housing to a distal end of the hub housing; a valve (130, 130') disposed within the hub, the valve configured to allow passage of an insertable device through the valve while inhibiting leakage of fluid from the valve; a cap (140, 140') engaged to the hub housing, the cap including an opening (142, 142') therethrough sized and shaped to allow passage of the insertable device through the opening, the opening allowing access to the passage of the hub housing; and an angled sidewall (144, 144') disposed within the hub, the angled sidewall being configured to radially compress an outside edge of the valve to retain and deform the valve into a curved shape; and a hub housing including a passage from a proximal end of the hub housing to a distal end of the hub housing; a valve (130, 130') disposed within the hub, the valve configured to allow passage of an insertable device through the valve while inhibiting leakage of fluid from the valve; a cap (140, 140') engaged to the hub housing, the cap including an opening (142, 142') therethrough sized and shaped to allow passage of the insertable device through the opening, the opening allowing access to the passage of the hub housing; and an angled sidewall (144, 144') disposed within the hub, the angled sidewall being configured to radially compress an outside edge of the valve to retain and deform the valve into a curved shape; and a sheath extending distally from the distal end of the hub housing, the sheath including a lumen through the sheath, the lumen being fluidly coupled to the passage of the hub housing; characterized in that: a center of the valve (130, 130') extends more distally or more proximally than the outside edge of the valve.
A method of manufacturing a container, comprising: providing a body defining a chamber for storing a product and defining an opening through which the product is dispensable from the chamber, wherein the chamber extends from a first end of the body towards a second end of the body, wherein the opening is at the first end of the body; selecting a first structure from a plurality of structures, each of the plurality of structures having a feature for forming part of an exterior surface of the container when the respective structure is affixed to the body, the feature of the first structure differing from the feature of another structure of the plurality of structures; affixing to the body the first structure with the feature of the first structure forming part of the exterior surface of the container, wherein the affixing comprises affixing the first structure to a first side of the body that extends between the first and second ends (101, 102) of the body; and affixing to the body a second structure having a feature that forms part of the exterior surface of the container when the second structure is affixed to the body, wherein the affixing comprises affixing the second structure to a second side of the body that extends between the first and second ends (101, 102) of the body, the second side of the body being opposite to the first side of the body. providing a body defining a chamber for storing a product and defining an opening through which the product is dispensable from the chamber, wherein the chamber extends from a first end of the body towards a second end of the body, wherein the opening is at the first end of the body; selecting a first structure from a plurality of structures, each of the plurality of structures having a feature for forming part of an exterior surface of the container when the respective structure is affixed to the body, the feature of the first structure differing from the feature of another structure of the plurality of structures; affixing to the body the first structure with the feature of the first structure forming part of the exterior surface of the container, wherein the affixing comprises affixing the first structure to a first side of the body that extends between the first and second ends (101, 102) of the body; and affixing to the body a second structure having a feature that forms part of the exterior surface of the container when the second structure is affixed to the body, wherein the affixing comprises affixing the second structure to a second side of the body that extends between the first and second ends (101, 102) of the body, the second side of the body being opposite to the first side of the body.
Solar cell, comprising a first solar cell stack; a second solar cell stack; an insulator; and wherein the first solar cell stack and the second solar cell stack are electrically connected parallel to each other; and wherein the first and the second solar cell stacks (1, 3) are electrically connected in parallel by a metal layer formed on the insulator formed on edges or side faces of the first solar cell stack and the second solar cell stack and a conduction layer arranged between the first and second solar cell stacks (1, 3) or with a metal bridge.
The use in an aqueous metalworking fluid of at least 0.07% ofa C 12-20 fatty acid neutralized with at least one of ammonia, an amine, and an alkanolamine, for decreasing staining of aluminium in the machining of an aluminum or aluminum alloy work piece.
A system for detecting subpopulations of constituents of at least one biological organism, said system being implemented by at least one hardware processor and comprising: a vector signal formulation module configured to formulate biological data including genomic data compiled from a cohort of the constituents of said at least one biological organism as a set of discrete-time real valued vector signals within at least one data structure of a storage medium, wherein said formulating comprises defining the vector signals by characteristics of a genome and denoting regions of the genome as time values; a frequency domain analyzer configured to perform frequency domain analysis on said vector signals of said biological data to compile spectral properties of said vector signals and to associate said spectral properties with said constituents of said cohort; and a subpopulation detection module configured to identify said subpopulations of said at least one biological organism by applying a similarity metric to said spectral properties and to direct the display of a representation of said identified subpopulations; wherein said identifying comprises constructing a population tree composed of parent-child pairs of said constituents and forming a population dissimilarity index denoting dissimilarities between a parent and a child of each of said pairs based on said similarity metric. a vector signal formulation module configured to formulate biological data including genomic data compiled from a cohort of the constituents of said at least one biological organism as a set of discrete-time real valued vector signals within at least one data structure of a storage medium, wherein said formulating comprises defining the vector signals by characteristics of a genome and denoting regions of the genome as time values; a frequency domain analyzer configured to perform frequency domain analysis on said vector signals of said biological data to compile spectral properties of said vector signals and to associate said spectral properties with said constituents of said cohort; and a subpopulation detection module configured to identify said subpopulations of said at least one biological organism by applying a similarity metric to said spectral properties and to direct the display of a representation of said identified subpopulations; wherein said identifying comprises constructing a population tree composed of parent-child pairs of said constituents and forming a population dissimilarity index denoting dissimilarities between a parent and a child of each of said pairs based on said similarity metric.
Method for producing a sliding surface element on the basis of UHMWPE for a joint endoprosthesis, comprising the steps: - mixing UHMWPE in powder form with 0.09 to 0.11% by weight of an antioxidant; - compacting the UHMWPE mixed with the antioxidant into a molded body; - manufacturing one or more sliding surface elements from the molded body by material-removing machining; and - irradiating the sliding surface element by gamma radiation or X-ray radiation with a radiation dose of 25 to 45 kGy in order to crosslink the UHMWPE, wherein the method comprises no thermal post-treatment of the irradiated sliding surface element. - mixing UHMWPE in powder form with 0.09 to 0.11% by weight of an antioxidant; - compacting the UHMWPE mixed with the antioxidant into a molded body; - manufacturing one or more sliding surface elements from the molded body by material-removing machining; and - irradiating the sliding surface element by gamma radiation or X-ray radiation with a radiation dose of 25 to 45 kGy in order to crosslink the UHMWPE,
A hybrid, multi-axial fabric comprising: a plurality of reinforcing fibers including a plurality of first fibers, a plurality of second fibers, and a plurality of third fibers; wherein the first fibers have a first orientation within the fabric; wherein the second fibers have a second orientation within the fabric, the second orientation differing from the first orientation by a first offset; wherein the third fibers have a third orientation within the fabric, the third orientation differing from the first orientation by a second offset; characterized in that the first fibers include a plurality of fourth fibers and a plurality of fifth fibers; wherein the fourth fibers account for between 10 wt% to 40 wt% of the first fibers and the fifth fibers account for between 60 wt% to 90 wt% of the first fibers, and the fourth fibers have a higher elastic modulus than the fifth fibers, and/or the fourth fibers have a higher tensile strength than the fifth fibers. a plurality of reinforcing fibers including a plurality of first fibers, a plurality of second fibers, and a plurality of third fibers; wherein the first fibers have a first orientation within the fabric; wherein the second fibers have a second orientation within the fabric, the second orientation differing from the first orientation by a first offset; wherein the third fibers have a third orientation within the fabric, the third orientation differing from the first orientation by a second offset; characterized in that the first fibers include a plurality of fourth fibers and a plurality of fifth fibers; wherein the fourth fibers account for between 10 wt% to 40 wt% of the first fibers and the fifth fibers account for between 60 wt% to 90 wt% of the first fibers, and the fourth fibers have a higher elastic modulus than the fifth fibers, and/or the fourth fibers have a higher tensile strength than the fifth fibers.
A tip assembly (301, 357, 601), comprising a tip electrode; a coupler comprising at least one fiber support tube center (343, 377, 543, 643), wherein a distal portion of the coupler is coupled to a proximal portion of the tip electrode; and a multi-core fiber (383, 455, 555, 655) comprising a plurality of cores (202, 204, 206, 208, 210, 212) and a fiber support tube (347, 375, 547, 647), wherein a proximal portion of the fiber support tube (347, 375, 547, 647) is coupled to and disposed within a through hole (565, 567) of the at least one fiber support tube center (343, 377, 543, 643), wherein the at least one fiber support tube center (343, 377, 543, 643) positions and keeps the multi-core fiber (383, 455, 555, 655) in the center of the coupler, and wherein the at least one fiber support tube center (343, 377, 543, 643) is coupled to an interior of a coupler outer wall. a tip electrode; a coupler comprising at least one fiber support tube center (343, 377, 543, 643), wherein a distal portion of the coupler is coupled to a proximal portion of the tip electrode; and a multi-core fiber (383, 455, 555, 655) comprising a plurality of cores (202, 204, 206, 208, 210, 212) and a fiber support tube (347, 375, 547, 647), wherein a proximal portion of the fiber support tube (347, 375, 547, 647) is coupled to and disposed within a through hole (565, 567) of the at least one fiber support tube center (343, 377, 543, 643), wherein the at least one fiber support tube center (343, 377, 543, 643) positions and keeps the multi-core fiber (383, 455, 555, 655) in the center of the coupler, and wherein the at least one fiber support tube center (343, 377, 543, 643) is coupled to an interior of a coupler outer wall.
A culture device for detecting a target microorganism, comprising: a selective growth medium that includes nutrients to facilitate the growth of the target microorganism and a plurality of selective agents that includes Cefsulodin, Nalidixic Acid, Streptomycin, Methicillin, and bile salts; a first differential indicator system comprising 2-deoxy-D-ribose and a pH indicator; a second differential indicator system comprising a chromogenic β-galactosidase enzyme substrate; a third differential indicator system comprising urea and a pH indicator; and a gelling agent. a selective growth medium that includes nutrients to facilitate the growth of the target microorganism and a plurality of selective agents that includes Cefsulodin, Nalidixic Acid, Streptomycin, Methicillin, and bile salts; a first differential indicator system comprising 2-deoxy-D-ribose and a pH indicator; a second differential indicator system comprising a chromogenic β-galactosidase enzyme substrate; a third differential indicator system comprising urea and a pH indicator; and a gelling agent.
An emulsified oil comprising lecithin, an edible oil and one or more extracts containing a polyphenol ingredient as anti-oxidant, wherein the one or more extracts is (are) selected from the group consisting of a molasses extract and an extract of raw sugar-ion resin reclaimed water; wherein the content of the molasses extract or the extract of raw sugar-ion resin reclaimed water is 5 to 19% (w/w), the content of the edible oil is 80 to 90% (w/w), and a content of the lecithin is 1 to 5% (w/w).
An adjusting device for adjusting a position of a headlight, comprising: a holding element for holding the adjusting device at an adjusting screw and a transmission element for changing the position of the headlight depending on the position of the holding element at the adjusting screw, wherein the holding element comprises at least two parts (2a, 2b) which are movable with respect to each other and which could at least partially enclose the cross-sectional area of the adjusting screw, and wherein the transmission element is provided with two moving means (4, 5), each of which is arranged at one of the at least two parts (2a, 2b) of the holding element and wherein the two moving means (4, 5) are arranged at the at least two parts (2a, 2b) in such a way that by moving the two moving means (4, 5) towards each other the at least two parts (2a, 2b) move away from one another in order to arrange the holding element of the adjusting device at the adjusting screw, and such that the at least two parts (2a, 2b) move towards one another in order for the at least two parts (2a, 2b) of the holding element to hold the adjusting device at the adjusting screw. a holding element for holding the adjusting device at an adjusting screw and a transmission element for changing the position of the headlight depending on the position of the holding element at the adjusting screw, wherein the holding element comprises at least two parts (2a, 2b) which are movable with respect to each other and which could at least partially enclose the cross-sectional area of the adjusting screw, and wherein the transmission element is provided with two moving means (4, 5), each of which is arranged at one of the at least two parts (2a, 2b) of the holding element and wherein the two moving means (4, 5) are arranged at the at least two parts (2a, 2b) in such a way that by moving the two moving means (4, 5) towards each other the at least two parts (2a, 2b) move away from one another in order to arrange the holding element of the adjusting device at the adjusting screw, and such that the at least two parts (2a, 2b) move towards one another in order for the at least two parts (2a, 2b) of the holding element to hold the adjusting device at the adjusting screw.
Cage arrangement which essentially comprises disc-shaped rollers which are guided in a roller cage arranged on a housing and said rollers are held in position by a cage plate which is essentially strip-shaped and attached to the housing in a position which is remote from the roller area, characterised in that the cage plate has a retaining bar which, in its intended installation position, is protruding in the direction of a roller and has a front surface section which corresponds concerning the shape to a roller surface facing the retaining bar.
A safety contact (10,60) for a safety line in a train, the safety contact (10,60) comprising a controller and a safety switch circuit (13,13A), wherein the controller comprises a sensor input for receiving signals indicating failure, wherein the safety contact (10,60) comprises an input (15,15A) for a safety line input signal, which input is operably connected to the controller whereby the controller is configured to receive a control signal representing a safety line state which is dependent on the safety line input signal received at the input (15,15A) input, wherein the safety switch circuit (13,13A) comprises a set of at least one safety switch (17,17A), the safety switch (17,17A) being positioned between a power supply (4,18) and an output (19, 19A), wherein the controller is configured to: ∘ upon receiving a control signal indicating a working safety line state and a sensor input value representing no safety function failure, close said safety switch (17,17A) of the safety switch circuit (13,13A), thereby connecting the output (19,19A) of the safety switch circuit to the power supply (4,18), thus putting an output signal on the output (19,19A), the output signal indicating a working safety line state, and ∘ upon receiving a control signal indicating a non-working safety line state or a sensor input value representing a safety function failure, open said safety switch (17,17A) of the safety switch circuit (13,13A), thereby essentially interrupting the safety line. ∘ upon receiving a control signal indicating a working safety line state and a sensor input value representing no safety function failure, close said safety switch (17,17A) of the safety switch circuit (13,13A), thereby connecting the output (19,19A) of the safety switch circuit to the power supply (4,18), thus putting an output signal on the output (19,19A), the output signal indicating a working safety line state, and ∘ upon receiving a control signal indicating a non-working safety line state or a sensor input value representing a safety function failure, open said safety switch (17,17A) of the safety switch circuit (13,13A), thereby essentially interrupting the safety line.