mhurhangee/ep-ind-claims huggingface dataset:
Rotary brush, particularly a sweeping brush for a sweeping machine, the rotary brush comprising a brush body which defines a brush axis and is constructed of axially extending shell parts (40, 41), each of which has, on a radially outer side thereof, a bristle fill of the rotary brush fixed thereto, wherein at least one shell part (40, 41) comprises, on a radially inner side thereof, at least one first aligning element and at least one second aligning element spaced apart relative to said first aligning element in a circumferential direction of the brush axis, between which aligning elements (52, 53) is formed a receptacle for a drive part (26, 28) for the rotary brush, which receptacle is, in sections thereof, bounded by end faces (56, 57) of the aligning elements (52, 53), each of which faces towards the respective other aligning element (52, 53), wherein at least one of the end faces (56, 57) is oriented obliquely with respect to the radial direction and wherein the receptacle narrows in a radial direction pointing away from the brush axis, wherein the shell part (40, 41) comprises a radial feed-through channel, opening into the receptacle, for inserting a connecting element from the outside through the shell part (40, 41), which connecting element is connectable to the drive part (26, 28) arrangeable in the receptacle.
A method for predicting a fault of an optical module, comprising: obtaining a sequence to be detected of the optical module in a preset time period, wherein the sequence to be detected comprises a plurality of measured values of an operating parameter of the optical module; obtaining a classification threshold corresponding to the operating parameter; determining a first prediction result of the optical module based on comparison results between the classification threshold corresponding to the operating parameter and the plurality of measured values in the sequence to be detected, wherein the first prediction result indicates whether the optical module enters a faulty mode; and obtaining a second prediction result when the first prediction result indicates that the optical module enters the faulty mode, wherein the second prediction result indicates an urgency level at which a fault is expected to occur on the optical module; characterized in that the obtaining the second prediction result comprises: generating a feature set based on the sequence to be detected; and inputting the feature set into a fault prediction model, to obtain the second prediction result. obtaining a sequence to be detected of the optical module in a preset time period, wherein the sequence to be detected comprises a plurality of measured values of an operating parameter of the optical module; obtaining a classification threshold corresponding to the operating parameter; determining a first prediction result of the optical module based on comparison results between the classification threshold corresponding to the operating parameter and the plurality of measured values in the sequence to be detected, wherein the first prediction result indicates whether the optical module enters a faulty mode; and obtaining a second prediction result when the first prediction result indicates that the optical module enters the faulty mode, wherein the second prediction result indicates an urgency level at which a fault is expected to occur on the optical module; characterized in that the obtaining the second prediction result comprises: generating a feature set based on the sequence to be detected; and inputting the feature set into a fault prediction model, to obtain the second prediction result. generating a feature set based on the sequence to be detected; and inputting the feature set into a fault prediction model, to obtain the second prediction result.
A glenoid prosthesis, comprising: an oval body having a first surface for contacting the glenoid surface and a second surface opposite to the first surface; two pegs (25, 35) protruding from the first surface of the body to penetrate into the glenoid surface, the pegs (25, 35) each having a plurality of circumferential barbs (22, 33) disposed along a length of each peg (25, 35), the pegs (25, 35) being adapted to be secured by bone cement into corresponding holes in the glenoid surface; and one protrusion extending from the first surface and having circumferential barbs disposed along a length of the protrusion; wherein centres of the two pegs (25, 35) and a centre of the one protrusion are disposed on the inferior-superior centreline of the body; characterised in that the protrusion has an elongate, partially-circular cross-section in a plane parallel to the first surface and the protrusion is disposed laterally of the two pegs. an oval body having a first surface for contacting the glenoid surface and a second surface opposite to the first surface; two pegs (25, 35) protruding from the first surface of the body to penetrate into the glenoid surface, the pegs (25, 35) each having a plurality of circumferential barbs (22, 33) disposed along a length of each peg (25, 35), the pegs (25, 35) being adapted to be secured by bone cement into corresponding holes in the glenoid surface; and one protrusion extending from the first surface and having circumferential barbs disposed along a length of the protrusion; wherein centres of the two pegs (25, 35) and a centre of the one protrusion are disposed on the inferior-superior centreline of the body; characterised in that the protrusion has an elongate, partially-circular cross-section in a plane parallel to the first surface and the protrusion is disposed laterally of the two pegs.
Cryogenic tank for storing liquefied fluid, comprising an inner shell delimiting a storage volume for liquefied fluid and an outer shell arranged in a spaced manner around the inner shell, the space between said inner and outer shells comprising a thermal insulation, the inner and outer shells extending in a longitudinal direction between two longitudinal ends, the tank comprising a structure for holding the inner shell in the outer shell, the holding structure being composed of a first mechanical connection between a first longitudinal end of the inner shell and a first longitudinal end of the outer shell, and of a second mechanical connection between the second longitudinal end of the inner shell and the second longitudinal end of the outer shell, the first mechanical connection comprising a first support wall of general truncated cone shape whose larger-diameter end is rigidly connected to the outer shell and whose smaller-diameter end is connected to the inner shell, characterized in that the second mechanical connection comprises a second support wall of general truncated cone shape whose larger-diameter end is rigidly connected to the outer shell and whose smaller-diameter end is connected to the inner shell.
A method for measuring protease activity in a feed sample comprising: (a) adding a substrate for a protease to a feed sample that comprises the protease activity to be measured, wherein the substrate is insoluble in aqueous solution and comprises a polypeptide attached to a chromophore signal producing group such that the signal is produced upon cleavage of the polypeptide by the protease, wherein the feed is an animal feed and the protease is a type of protease that is added to the animal feed to improve the protein digestibility of the feed, wherein the polypeptide is casein and wherein the animal feed is a pelleted feed; (b) incubating the substrate with the feed sample in a reaction buffer essentially free of phosphate, comprising 5% to 15% sodium dodecyl sulfate at a pH range between pH6.5 to pH10, and at a temperature of 30°C to 65°C for a time period ranging from 30 minutes to 5 hours, to allow for cleavage of the polypeptide such that the signal is produced for measurement of the protease activity; and (c) measuring the protease activity by visual inspection of a color change resulting from the signal produced by the chromophore. (a) adding a substrate for a protease to a feed sample that comprises the protease activity to be measured, wherein the substrate is insoluble in aqueous solution and comprises a polypeptide attached to a chromophore signal producing group such that the signal is produced upon cleavage of the polypeptide by the protease, wherein the feed is an animal feed and the protease is a type of protease that is added to the animal feed to improve the protein digestibility of the feed, wherein the polypeptide is casein and wherein the animal feed is a pelleted feed; (b) incubating the substrate with the feed sample in a reaction buffer essentially free of phosphate, comprising 5% to 15% sodium dodecyl sulfate at a pH range between pH6.5 to pH10, and at a temperature of 30°C to 65°C for a time period ranging from 30 minutes to 5 hours, to allow for cleavage of the polypeptide such that the signal is produced for measurement of the protease activity; and (c) measuring the protease activity by visual inspection of a color change resulting from the signal produced by the chromophore.
An apparatus for radiation processing of fluent food products comprising: a radiation source; a first wall (21, 21A, 21B, 21C) having a convex surface, the first wall (21, 21A, 21B, 21C) being transmissive to radiation energy produced by the radiation source; a second wall (22, 22A, 22B, 22C) having a concave surface that opposes the convex surface of the first wall (21, 21A, 21B, 21C) so as to form a product flow cavity (29, 29A, 29B, 29C) having a substantially constant depth therebetween; an inlet forming a passageway into the product flow cavity (29, 29A, 29B, 29C); an outlet forming a passageway out of the product flow cavity (29, 29A, 29B, 29C); and a sensor means (80, 80A) in the product flow cavity (29, 29A, 29B, 29C) for measuring a characteristic of the radiation energy emitted by the radiation source; wherein the first wall (21, 21A, 21B, 21C) is positioned between the radiation source and the product flow cavity (29, 29A, 29B, 29C) so that when the radiation source emits radiation energy, the radiation energy passes through the first wall (21, 21A, 21B, 21C) and into the product flow cavity (29, 29A, 29B, 29C); and wherein the radiation source is selected from the group consisting of an electron beam source, a gamma ray source, and an x-ray source; means to adjust the substantially constant depth of the product flow cavity (29, 29A, 29B, 29C). a radiation source; a first wall (21, 21A, 21B, 21C) having a convex surface, the first wall (21, 21A, 21B, 21C) being transmissive to radiation energy produced by the radiation source; a second wall (22, 22A, 22B, 22C) having a concave surface that opposes the convex surface of the first wall (21, 21A, 21B, 21C) so as to form a product flow cavity (29, 29A, 29B, 29C) having a substantially constant depth therebetween; an inlet forming a passageway into the product flow cavity (29, 29A, 29B, 29C); an outlet forming a passageway out of the product flow cavity (29, 29A, 29B, 29C); and a sensor means (80, 80A) in the product flow cavity (29, 29A, 29B, 29C) for measuring a characteristic of the radiation energy emitted by the radiation source;
An information processing device, comprising: a determination unit (12, 276) configured to determine a connection state between the information processing device and an information device locally connected to the information processing device; an information control unit (12, 264) configured to write to an internal storage unit (14, 18) device information of the information device acquired from the information device; and an information transmission unit (12, 264) configured to transmit, to a device management apparatus connected to the information processing device through a network, the device information of the information device acquired from the information device, the connection state being a first state; wherein the first state is a state in which the information processing device and the information device are communicably connected to each other by either a wired connection or a wireless connection and the information device is turned on, and the second state is one of a state in which communication between the information processing device and the information device is disconnected and a state in which the information device is turned off; the information control unit (12, 264) is further configured to delete from the internal storage unit (14, 18) the device information of the information device managed by the information processing device, the connection state being the second state. a determination unit (12, 276) configured to determine a connection state between the information processing device and an information device locally connected to the information processing device; an information control unit (12, 264) configured to write to an internal storage unit (14, 18) device information of the information device acquired from the information device; and an information transmission unit (12, 264) configured to transmit, to a device management apparatus connected to the information processing device through a network, the device information of the information device acquired from the information device, the connection state being a first state; wherein the first state is a state in which the information processing device and the information device are communicably connected to each other by either a wired connection or a wireless connection and the information device is turned on, and the second state is one of a state in which communication between the information processing device and the information device is disconnected and a state in which the information device is turned off; the information control unit (12, 264) is further configured to delete from the internal storage unit (14, 18) the device information of the information device managed by the information processing device, the connection state being the second state.
Compound with formula structure Ac - Nle - Glu - His- D-Phe -X - Trp - NH 2, wherein X is homoArg or norArg, or a pharmaceutically acceptable salt thereof.
A composite nonwoven textile having a first face and an opposite second face, the composite nonwoven textile comprising: a first entangled web of fibers that forms, at least in part, the first face; a second entangled web of fibers that forms, at least in part, the second face; an elastomeric layer positioned between the first entangled web of fibers and the second entangled web of fibers, wherein at least some of the fibers of the first entangled web of fibers extend through the elastomeric layer and are entangled with fibers (310, 312) of the second entangled web of fibers; and a plurality of discrete thermal bonding sites (3618, 4012, 4010), each of the plurality of discrete thermal bonding sites (3618, 4012, 4010) including a thermal bond structure that is located between the first face and the second face, wherein fibers from the first entangled web of fibers extend from each of the thermal bond structures, wherein each of the thermal bond structures is offset relative to the first face in a direction extending toward the second face, and wherein each of the thermal bond structures is offset relative to the second face in a direction extending toward the first face, and wherein a first average depth of the offset relative to the first face is different than a second average depth of the offset relative to the second face. a first entangled web of fibers that forms, at least in part, the first face; a second entangled web of fibers that forms, at least in part, the second face; an elastomeric layer positioned between the first entangled web of fibers and the second entangled web of fibers, wherein at least some of the fibers of the first entangled web of fibers extend through the elastomeric layer and are entangled with fibers (310, 312) of the second entangled web of fibers; and a plurality of discrete thermal bonding sites (3618, 4012, 4010), each of the plurality of discrete thermal bonding sites (3618, 4012, 4010) including a thermal bond structure that is located between the first face and the second face, wherein fibers from the first entangled web of fibers extend from each of the thermal bond structures, wherein each of the thermal bond structures is offset relative to the first face in a direction extending toward the second face, and wherein each of the thermal bond structures is offset relative to the second face in a direction extending toward the first face, and wherein a first average depth of the offset relative to the first face is different than a second average depth of the offset relative to the second face.
A spinal implant insertion instrument comprising: a gripping end; a handle end; and an elongate shaft extending between said gripping end and said handle end, wherein the gripping end comprises a first fixed arm for engaging with a first screw hole in a spinal implant and a moveable arm for securely holding the spinal implant during insertion; wherein the handle end comprises an actuator wheel for controlling movement at the gripping end; and wherein rotation of the actuator wheel moves the moveable arm up and down to engage with a second, central screw hole in the spinal implant. a gripping end; a handle end; and an elongate shaft extending between said gripping end and said handle end, wherein the gripping end comprises a first fixed arm for engaging with a first screw hole in a spinal implant and a moveable arm for securely holding the spinal implant during insertion; wherein the handle end comprises an actuator wheel for controlling movement at the gripping end; and wherein rotation of the actuator wheel moves the moveable arm up and down to engage with a second, central screw hole in the spinal implant.
Adhesive binder for producing book blocks and brochures with a plurality of finishing stations, at least two transport clamps (11, 12, 13) for the transport of book blocks and at least one closed guideway on which the transport clamps (11, 12, 13) circulate and pass the finishing stations, characterised in that each respective transport clamp (11, 12, 13) is associated with a drive (41, 42, 43) with an endless, circulating traction means (21, 22, 23), wherein the respective transport clamps (11, 12, 13) are connected with the traction means (21, 22, 23), and that the drives (41, 42, 43) are independent of each other, and that the adhesive binder possesses a machine control system for independent actuation of the drives (41, 42, 43).
A bell-shaped milling cutter for producing profiled, arcuate grooves, comprising a main body in the form of a circular disk and a plurality of cutting edge carriers which extend substantially perpendicularly to the plane of the main body and which are arranged in succession in the peripheral direction along a circular path about the center of the main body, wherein each cutting edge carrier is of the basic shape of an arcuate segment of a hollow cylinder, and has recesses for receiving interchangeable cutting bits, wherein the radial thickness of the segment varies along the axial extent of the cutting edge carrier, characterised in that the cutting edge carriers are releasably mounted to the main body and that at the main body positioning devices are provided which positioning devices permit mounting of the cutting edge carriers in a plurality of mutually different radial spacings on the main body, wherein the positioning devices in plan view have sector-shaped positioning modules with axially and predominantly radially extending flank surfaces which are mounted on a surface of the main body, which surface extends substantially perpendicularly to the axis of rotation, in such a way that the mutually facing flank surfaces of adjacent positioning modules extend parallel and define a groove of rectangular cross-section with the surface of the main body, which surface extends perpendicularly to the axis of rotation and to the flank surfaces, and that the flank surfaces and/or the groove bottom have at least one recess for receiving at least one sliding block.
Forming device (7; 107) for creating a form in a fibrous product, this forming device being intended to be mounted on a flight (6; 106) of a conveyor (4, 5) for transporting the fibrous product through a heating device, the flight (6; 106) defining a receiving surface (63; 163) for the fibrous product, the forming device having: - a forming block (8; 108), a main part (81; 181) of which is intended to be arranged at the front of the receiving surface (63; 163), and - at least one anchoring element (9; 199) which is intended to be fixed to the flight while being arranged at the rear of the receiving surface (63; 163), characterized in that the forming block (8; 108) and the anchoring element (9; 199) comprise complementary snap-fastening members (89, 99; 189, 199) which, when the main part (81; 181) of the forming block is facing the receiving surface (63; 163) and the anchoring element (9; 199) is fixed to the flight (6; 106) at the rear of the receiving surface (63; 163), are able to engage by the application of a one-way pushing force (F 1) that pushes the main part (81; 181) of the forming block towards the receiving surface (63; 163), in a transverse direction with respect to the receiving surface. - a forming block (8; 108), a main part (81; 181) of which is intended to be arranged at the front of the receiving surface (63; 163), and - at least one anchoring element (9; 199) which is intended to be fixed to the flight while being arranged at the rear of the receiving surface (63; 163), characterized in that the forming block (8; 108) and the anchoring element (9; 199) comprise complementary snap-fastening members (89, 99; 189, 199) which, when the main part (81; 181) of the forming block is facing the receiving surface (63; 163) and the anchoring element (9; 199) is fixed to the flight (6; 106) at the rear of the receiving surface (63; 163), are able to engage by the application of a one-way pushing force (F 1) that pushes the main part (81; 181) of the forming block towards the receiving surface (63; 163), in a transverse direction with respect to the receiving surface.