mhurhangee/patent-ind-claim-en huggingface dataset:
A hub apparatus, comprising: a first port that is configured to receive predetermined cascade-supplied differential signals from a controller , the controller controlling a plurality of devices (26-31); a plurality of second ports (18A-18E) that are configured to receive the predetermined differential signals from the plurality of devices (26-31) and output the predetermined differential signals to the plurality of devices (26-31); a third port that is configured to cascade-output the predetermined differential signals to a hub apparatus at a subsequent stage; a plurality of differential signal line pairs that is configured to daisy-chain connect the first port , the plurality of second ports (18A-18E), and the third port in this order; and a terminator provided between two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port , wherein the hub apparatus further comprises a first switch that is configured to connect and disconnect between the terminator and one of the two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port . a first port that is configured to receive predetermined cascade-supplied differential signals from a controller , the controller controlling a plurality of devices (26-31); a plurality of second ports (18A-18E) that are configured to receive the predetermined differential signals from the plurality of devices (26-31) and output the predetermined differential signals to the plurality of devices (26-31); a third port that is configured to cascade-output the predetermined differential signals to a hub apparatus at a subsequent stage; a plurality of differential signal line pairs that is configured to daisy-chain connect the first port , the plurality of second ports (18A-18E), and the third port in this order; and a terminator provided between two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port , wherein the hub apparatus further comprises a first switch that is configured to connect and disconnect between the terminator and one of the two differential signal lines that constitute a differential signal line pair connecting the last-stage second port out of the plurality of second ports (18A-18E) to the third port .
A stent (1; 40; 51a - 51d) which is formed by braiding a plurality of filament threads containing a biodegradable polymer into a cylindrical braid , wherein connecting points (42 - 48) at end portions of the filament threads constituting the braid are arranged in two or more rows in a length direction of the braid, and a plurality of elastic threads (5a - 5d; 54a - 54g) are further incorporated in the braid as warp threads and extend in the length direction, with both ends of the elastic threads being fixed to the braid.
A support structure for a bed, the support structure comprising at least 5 elongate resilient members configured to support a person, wherein the resilient members extend lengthwise from a first end of the support structure to a second, opposite end of the support structure, and are arranged parallel to each other in an array across the support structure, wherein the resilient members are the main supporting element for a person resting on the support structure, wherein the resilient members each comprise a sensor element in the form of a piezoelectric material that is attached to and runs along substantially an entire length of the respective resilient member, and each of the sensor elements is configured to provide an electrical response proportional to the amount of movement of the respective resilient member.
A compound that is N -(5-(6-chloro-2,2-difluorobenzo[ d ] dioxol-5-yl)pyrazin-2-yl)-2-fluoro-6-methylbenzamide or a pharmaceutically acceptable salt thereof.
A mandrel comprising a device for reducing the closing force exerted by the operating end of a hydraulic cylinder of a machine tool on which the mandrel is mountable, the mandrel comprising: - a mandrel body , adapted to be connected to a front of the machine tool, - an interface pusher , adapted to be housed in the front of the machine tool and axially extending from a first end , configured to be connected to the operating end of the hydraulic cylinder of the machine tool and to a second end , which is axially opposite to the first end and is located in the body of the mandrel, - jaws for clamping a workpiece to be mounted to the mandrel, and a sleeve pusher for actuating the jaws , said second end of the interface pusher comprising a first front portion configured to control the sleeve pusher for actuating the jaws , and a second front portion facing a plurality of elastically deformable elements , said elastically deformable elements being housed within an axial cavity of said sleeve pusher for actuating the jaws , characterized in that the mandrel further comprises a spacer interposed between the second front portion and the plurality of elastically deformable elements, wherein the second front portion is configured to contact the spacer; and in that said elastically deformable elements are adapted to be compressed between said second front portion of the interface pusher and an axial reference rigidly connected to said mandrel body , wherein said first front portion of the interface pusher is configured to engage said sleeve pusher for actuating the jaws as a predetermined elastic deformation value is reached in said elastically deformable elements . - a mandrel body , adapted to be connected to a front of the machine tool, - an interface pusher , adapted to be housed in the front of the machine tool and axially extending from a first end , configured to be connected to the operating end of the hydraulic cylinder of the machine tool and to a second end , which is axially opposite to the first end and is located in the body of the mandrel, - jaws for clamping a workpiece to be mounted to the mandrel, and a sleeve pusher for actuating the jaws , the mandrel further comprises a spacer interposed between the second front portion and the plurality of elastically deformable elements, wherein the second front portion is configured to contact the spacer; and in that said elastically deformable elements are adapted to be compressed between said second front portion of the interface pusher and an axial reference rigidly connected to said mandrel body , wherein said first front portion of the interface pusher is configured to engage said sleeve pusher for actuating the jaws as a predetermined elastic deformation value is reached in said elastically deformable elements .
Method for the additive manufacture of components in which the components are constructed by layer-by-layer solidification of a construction material in a construction direction which can be transferred from a liquid into a first solid phase by a chemical reaction, wherein - the layer-by-layer solidification takes place with the formation of the first solid phase in each case by positionally selective irradiation of a layer of the liquid phase of the construction material according to the component geometry, - a material is used as construction material which during the additive manufacture can undergo a further phase transition controllable by cooling between the liquid phase and a solid aggregate state as a second solid phase which does not influence the first solid phase and - the further phase transition is controlled such during the construction of the components that with the formation of the first solid phase solidified component regions are supported by surrounding construction material in the second solid phase, characterized in that a block of solidified construction material formed by the transition into the second solid phase is conveyed contrary to the construction direction by an advancing device which laterally approaches or engages the block in relation to the construction direction in order to construct the components in a layer-by-layer manner. - the layer-by-layer solidification takes place with the formation of the first solid phase in each case by positionally selective irradiation of a layer of the liquid phase of the construction material according to the component geometry, - a material is used as construction material which during the additive manufacture can undergo a further phase transition controllable by cooling between the liquid phase and a solid aggregate state as a second solid phase which does not influence the first solid phase and - the further phase transition is controlled such during the construction of the components that with the formation of the first solid phase solidified component regions are supported by surrounding construction material in the second solid phase,
A device for packaging and applying a product, comprising: - a container containing the product and having a neck , - an applicator having an applicator member carried by a stem , and - a wiping device having: - a wiping part for wiping off the applicator member and the stem as they leave the container , and - a fastening part for fastening the wiping device in the neck of the container , one of the fastening part and the wiping part having an outer skirt and an inner skirt that define an annular groove between one another, the other of the fastening part and the wiping part having a mounting skirt fitted in said groove , the fastening part and wiping part being arranged so as to allow preassembly of the wiping device before it is mounted in the neck , wherein the outer skirt is being deformed radially inward by the neck while the wiping device is being mounted in the neck , and being pressed against the mounting skirt at least when the wiping device is in a configuration mounted in the neck , and wherein the outer skirt has a relief that engages with the mounting skirt in this configuration in order to prevent any detachment of the fastening part and the wiping part . - a container containing the product and having a neck , - an applicator having an applicator member carried by a stem , and - a wiping device having: - a wiping part for wiping off the applicator member and the stem as they leave the container , and - a fastening part for fastening the wiping device in the neck of the container , - a wiping part for wiping off the applicator member and the stem as they leave the container , and - a fastening part for fastening the wiping device in the neck of the container ,
A positive electrode active material for all-solid lithium ion batteries, the positive electrode active material comprising: a core positive electrode active material having a composition represented by the following formula: LiaNibCocMdO2 in which M is at least one element selected from Mn, V, Mg, Ti and Al, 1.00 ≤ a ≤ 1.02, 0.8 ≤ b ≤ 0.9, and b + c + d = 1; and a coated portion formed on a surface of the core positive electrode active material, wherein the coated portion is an oxide comprising Li and Nb, and at least one transition metal having higher valency than that of Nb, wherein a ratio of a total content of Nb and the transition metal having higher valency than that of Nb in the coated portion is from 1.0 to 1.6 mol% with respect to a total content of Ni, Co and M in the core positive electrode active material; and wherein the ratio of the content of Nb is higher than that of the content of the transition metal having higher valency than that of Nb. a core positive electrode active material having a composition represented by the following formula: LiaNibCocMdO2 in which M is at least one element selected from Mn, V, Mg, Ti and Al, 1.00 ≤ a ≤ 1.02, 0.8 ≤ b ≤ 0.9, and b + c + d = 1; and a coated portion formed on a surface of the core positive electrode active material, wherein the coated portion is an oxide comprising Li and Nb, and at least one transition metal having higher valency than that of Nb, wherein a ratio of a total content of Nb and the transition metal having higher valency than that of Nb in the coated portion is from 1.0 to 1.6 mol% with respect to a total content of Ni, Co and M in the core positive electrode active material; and wherein the ratio of the content of Nb is higher than that of the content of the transition metal having higher valency than that of Nb.
A lyophilized pharmaceutical preparation comprising (i) melphalan flufenamide, or a pharmaceutically acceptable salt thereof; and (ii) sucrose. (i) melphalan flufenamide, or a pharmaceutically acceptable salt thereof; and (ii) sucrose.
A perfusion system for enabling hospitals or clinics to directly administer to patients in need thereof a dose of an antineoplastic drug calculated according to a patient parameter, wherein the parameter varies over a range in the patient population, said system comprising: a plurality of perfusion containers, each container comprising a ready-to-infuse, aqueous perfusion solution of an antineoplastic drug, wherein said plurality of perfusion containers comprise a first set of perfusion container (s) comprising a ready-to-infuse, aqueous perfusion solution of an antineoplastic drug and a second set of top-up perfusion containers comprising a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug and optionally a third set of top-up perfusion containers comprising a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug, and instructions for selecting one or more perfusion container(s) from the first set and if required one or more top-up perfusion container(s) from the second and/or third set for directly administering the calculated dose of the antineoplastic drug from the selected perfusion containers, wherein the first set of perfusion containers comprises a ready-to-infuse, aqueous perfusion solution of an antineoplastic drug at a first concentration, the second set of top-up perfusion containers comprises a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug at a second concentration and the optional third set of top-up perfusion containers comprises a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug at a third concentration and wherein the first, second and/or third concentrations are different. a plurality of perfusion containers, each container comprising a ready-to-infuse, aqueous perfusion solution of an antineoplastic drug, wherein said plurality of perfusion containers comprise a first set of perfusion container (s) comprising a ready-to-infuse, aqueous perfusion solution of an antineoplastic drug and a second set of top-up perfusion containers comprising a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug and optionally a third set of top-up perfusion containers comprising a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug, and instructions for selecting one or more perfusion container(s) from the first set and if required one or more top-up perfusion container(s) from the second and/or third set for directly administering the calculated dose of the antineoplastic drug from the selected perfusion containers, wherein the first set of perfusion containers comprises a ready-to-infuse, aqueous perfusion solution of an antineoplastic drug at a first concentration, the second set of top-up perfusion containers comprises a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug at a second concentration and the optional third set of top-up perfusion containers comprises a ready-to-infuse, aqueous perfusion solution of the antineoplastic drug at a third concentration and wherein the first, second and/or third concentrations are different.
A method for testing the operational capability of two-wire transducers in automation technology, which output a measurement signal as impressed loop direct current (IS) via a two-wire line and whose active modules are supplied with electrical energy via the same two-wire line, wherein the loop direct current (IS) and an input voltage (UE) of the transducer are measured, wherein the loop direct current (IS) is increased independently of the measured value in the range from a minimum value to a maximum value (ISM) and thereby the input voltage (UE) of the transducer is measured, characterized in that , a. measured values of the input voltage (UE) at selected measuring points on the loop direct current (IS) are stored as an individual signature of the transducer , b. during the ongoing operation of the transducer , the input voltage (UE) at the connecting terminals of the two-wire line is repeatedly measured via an internal resistance of the transducer at prevailing loop direct current (IS) and compared with the signature at the same loop direct current (IS), and c. a predetermined reaction of the transducer is triggered as soon as the input voltage (UE) at the connection terminals of the two-wire line leaves a predetermined tolerance via the internal resistance of the transducer with prevailing loop direct current (IS). a. measured values of the input voltage (UE) at selected measuring points on the loop direct current (IS) are stored as an individual signature of the transducer , b. during the ongoing operation of the transducer , the input voltage (UE) at the connecting terminals of the two-wire line is repeatedly measured via an internal resistance of the transducer at prevailing loop direct current (IS) and compared with the signature at the same loop direct current (IS), and c. a predetermined reaction of the transducer is triggered as soon as the input voltage (UE) at the connection terminals of the two-wire line leaves a predetermined tolerance via the internal resistance of the transducer with prevailing loop direct current (IS).
A processing device for a weighing scale , wherein the processing device is configured to: obtain a first axle positioning sensing signal (Pks) indicating when wheels of a vehicle enter a first side of a weighing bridge , wherein the first side is an entering side for the vehicle , determine a first threshold signal ( Th 1) based on the first axle positioning sensing signal ( Pks ), determine at least one first transitional time period ( T 1) when wheels of the vehicle enter the first side based on the first axle positioning sensing signal ( Pks ) and the first threshold signal ( Th 1); and obtain a second axle positioning sensing signal ( Aks ) indicating when wheels of the vehicle leave a second side of the weighing bridge , wherein the second side is a leaving side for the vehicle , determine a second threshold signal ( Th2 ) based on the second axle positioning sensing signal ( Aks ), determine at least one second transitional time period ( T 2) when wheels of the vehicle leave the second side based on the second axle positioning sensing signal ( Aks ) and the second threshold signal ( Th2 ); obtain samples of a weight signal ( W ) associated with the first axle positioning sensing signal (Pks) and the second axle positioning sensing signal ( Aks ); discard samples of the weight signal ( W ) based on the first transitional time period (T1) ; discard samples of the weight signal ( W ) based on the second transitional time period ( T 2) ; and compute at least one of an axle weight for the vehicle and a total weight for the vehicle based on the non-discarded samples of the weight signal ( W ). obtain a first axle positioning sensing signal (Pks) indicating when wheels of a vehicle enter a first side of a weighing bridge , wherein the first side is an entering side for the vehicle , determine a first threshold signal ( Th 1) based on the first axle positioning sensing signal ( Pks ), determine at least one first transitional time period ( T 1) when wheels of the vehicle enter the first side based on the first axle positioning sensing signal ( Pks ) and the first threshold signal ( Th 1); and obtain a second axle positioning sensing signal ( Aks ) indicating when wheels of the vehicle leave a second side of the weighing bridge , wherein the second side is a leaving side for the vehicle , determine a second threshold signal ( Th2 ) based on the second axle positioning sensing signal ( Aks ), determine at least one second transitional time period ( T 2) when wheels of the vehicle leave the second side based on the second axle positioning sensing signal ( Aks ) and the second threshold signal ( Th2 ); obtain samples of a weight signal ( W ) associated with the first axle positioning sensing signal (Pks) and the second axle positioning sensing signal ( Aks ); discard samples of the weight signal ( W ) based on the first transitional time period (T1) ; discard samples of the weight signal ( W ) based on the second transitional time period ( T 2) ; and compute at least one of an axle weight for the vehicle and a total weight for the vehicle based on the non-discarded samples of the weight signal ( W ).
A method of disinfecting using a blue-violet light delivery system comprising: optically coupling a light source to a blue-violet light delivery system; positioning the blue-violet light delivery system in optical engagement with a pathogen sample; and directing light output by the light source into the blue-violet light delivery system for a first time interval thereby irradiating the pathogen sample with light comprising an average power density of about 5 mW/cm 2 to about 30 mW/cm 2 at a wavelength from about 380 nm to about 495 nm for an exposure time from about 30 minutes to about 48 hours; wherein the blue-violet light delivery system comprises one or more light diffusing optical fibers comprising: a core; a cladding surrounding the core; an outer surface; and a plurality of scattering structures positioned within the core, the cladding, or both the core and the cladding; wherein the core comprises glass doped with 300 ppm or more of a hydroxyl material and the cladding comprises glass doped with 300 ppm or more of a hydroxyl material. optically coupling a light source to a blue-violet light delivery system; positioning the blue-violet light delivery system in optical engagement with a pathogen sample; and directing light output by the light source into the blue-violet light delivery system for a first time interval thereby irradiating the pathogen sample with light comprising an average power density of about 5 mW/cm 2 to about 30 mW/cm 2 at a wavelength from about 380 nm to about 495 nm for an exposure time from about 30 minutes to about 48 hours; wherein the blue-violet light delivery system comprises one or more light diffusing optical fibers comprising: a core; a cladding surrounding the core; an outer surface; and a plurality of scattering structures positioned within the core, the cladding, or both the core and the cladding; a core; a cladding surrounding the core; an outer surface; and a plurality of scattering structures positioned within the core, the cladding, or both the core and the cladding; wherein the core comprises glass doped with 300 ppm or more of a hydroxyl material and the cladding comprises glass doped with 300 ppm or more of a hydroxyl material.