mhurhangee/ep-ind-claims huggingface dataset:
An infusion system for delivery of a fluid from a remote source into a patient's body comprising: a main fluid infusion unit (12, 112, 212) having a cannula (12B, 112B, 212B), said cannula attached at a near end to an underside of said main fluid infusion unit, a first fluid channel (14H, 114D, 214d) in fluid communication with said cannula; and a fluid connection line (18, 218) having a near end and a removed end, said fluid connection line engageable at said removed end to said remote source; characterised by a fluid connector assembly (16, 116, 216) having a second fluid channel (16F, 116F, 216N) attachable to said near end of said fluid connection line (18, 218); the main fluid infusion unit (12, 112, 212) having a first hinge section (12C, 112C, 212C-D) cooperating with a second hinge section (16C, 116C, 216e) on the fluid connector assembly to allow pivotal movement of said system from a first non-delivery position wherein said first fluid channel (14H, 114D, 214d) is not in fluid communication with said second fluid channel (16F, 116F, 216N) to a second delivery position wherein said first fluid channel is in fluid communication with said second fluid channel to deliver said fluid from said remote source through said cannula and into said patient. a main fluid infusion unit (12, 112, 212) having a cannula (12B, 112B, 212B), said cannula attached at a near end to an underside of said main fluid infusion unit, a first fluid channel (14H, 114D, 214d) in fluid communication with said cannula; and a fluid connection line (18, 218) having a near end and a removed end, said fluid connection line engageable at said removed end to said remote source; characterised by a fluid connector assembly (16, 116, 216) having a second fluid channel (16F, 116F, 216N) attachable to said near end of said fluid connection line (18, 218); the main fluid infusion unit (12, 112, 212) having a first hinge section (12C, 112C, 212C-D) cooperating with a second hinge section (16C, 116C, 216e) on the fluid connector assembly to allow pivotal movement of said system from a first non-delivery position wherein said first fluid channel (14H, 114D, 214d) is not in fluid communication with said second fluid channel (16F, 116F, 216N) to a second delivery position wherein said first fluid channel is in fluid communication with said second fluid channel to deliver said fluid from said remote source through said cannula and into said patient.
A method of enabling selection of a remote service node from a plurality of possible remote service nodes, the remote service nodes each being capable of providing a service to a user device via a data network, and each being associated with at least one service node control entity, the method comprising, at a selection entity: receiving from a user device a user request in respect of a service required by a user, the user request containing a first user device routing identifier relating to the location in the network of the user device, and a service indication indicative of a service provider from which the user requires service; identifying from the service indication a service node control entity associated with the service provider; sending to the service node control entity a service node request, the service node request containing a second user device routing identifier; receiving from the service node control entity an indication of at least one remote service node capable of providing the required service to the user device; and providing an indication of the at least one remote service node to the user device; characterised in that the second user device routing identifier is selected by the selection entity from a plurality of predetermined user device routing identifiers that each differ from the first user device routing identifier and relate to locations in the network that differ from the location in the network to which the first user device routing identifier relates, the selection being made by the selection entity in dependence on the first user device routing identifier contained in the user request received by the selection entity from the user device. receiving from a user device a user request in respect of a service required by a user, the user request containing a first user device routing identifier relating to the location in the network of the user device, and a service indication indicative of a service provider from which the user requires service; identifying from the service indication a service node control entity associated with the service provider; sending to the service node control entity a service node request, the service node request containing a second user device routing identifier; receiving from the service node control entity an indication of at least one remote service node capable of providing the required service to the user device; and providing an indication of the at least one remote service node to the user device;
An arrangement for supplying fuel from a fuel pressure source located on an outside of an engine enclosure to a fuel injector located on an inside of the engine enclosure, said arrangement comprising: - a fuel pipe for transporting fuel from the fuel pressure source to the fuel injector via an opening in the engine enclosure, - a seal for sealing the fuel pipe at the opening, characterized in that the seal comprises a first part configured for a sealing contact around the fuel pipe and a second part configured for a sealing contact around a sleeve extending around the opening. - a fuel pipe for transporting fuel from the fuel pressure source to the fuel injector via an opening in the engine enclosure, - a seal for sealing the fuel pipe at the opening,
A projection system comprising: a projection apparatus (102, 902) that projects pattern light onto an object, the pattern light including pattern images corresponding to information that indicates coded projection coordinates in a projection coordinate system; an imaging apparatus (101, 901) that captures images created on the object by projecting the pattern light onto the object and that generates first captured images including imaging pixel values at imaging pixel coordinates in an imaging coordinate system; and an image correction apparatus that generates, based on the first captured images, first coordinate conversion information which associates the projection coordinates with the imaging pixel coordinates and that corrects a projection image, which is prepared in advance, by using the first coordinate conversion information, characterized in that the image correction apparatus compares a second captured image indicating a structure of the object, which is obtained by the imaging apparatus (101, 901), with a reference image prepared in advance, generates second coordinate conversion information which associates the second captured image with the reference image by using a geometric transformation, and performs a geometric transformation process on the projection image by using the first coordinate conversion information and the second coordinate conversion information. a projection apparatus (102, 902) that projects pattern light onto an object, the pattern light including pattern images corresponding to information that indicates coded projection coordinates in a projection coordinate system; an imaging apparatus (101, 901) that captures images created on the object by projecting the pattern light onto the object and that generates first captured images including imaging pixel values at imaging pixel coordinates in an imaging coordinate system; and an image correction apparatus that generates, based on the first captured images, first coordinate conversion information which associates the projection coordinates with the imaging pixel coordinates and that corrects a projection image, which is prepared in advance, by using the first coordinate conversion information, characterized in that the image correction apparatus compares a second captured image indicating a structure of the object, which is obtained by the imaging apparatus (101, 901), with a reference image prepared in advance, generates second coordinate conversion information which associates the second captured image with the reference image by using a geometric transformation, and performs a geometric transformation process on the projection image by using the first coordinate conversion information and the second coordinate conversion information.
An apparatus (1;11;61) for substantially sterile connection of flexible tubing, comprising: at least one tubing holder (2;12;62), adapted to receive one or more lengths of said tubing (3;13;63) and equipped with one or more sterilant applicators (4;14;64) adapted to apply a sterilant to the or each said length of tubing (3;13;63) upon reception of the tubing length(s) in the tubing holder (2;12;62), wherein said at least one tubing holder each comprises an essentially cylindrical port of a diameter suitable to receive a length of tubing, said port leading into a tubing end receiver located in a connector holder or into a cutting and connector compartment, and wherein said one or more sterilant applicators each comprises a tubular or slit tubular layer of a flexible open-porous material arranged on an inner surface of said port(s); at least one cutter (5;15;65), movable in relation to the tubing holder (2;12;62) in a direction essentially transverse to the length(s) of tubing, and adapted to cut the or each said length of tubing (3;13;63); and a connector holder (6;16;66) characterized in that the connector holder includes a compartment (8;18;68) housing a substantially sterile tubing connector (7;17;67), said connector holder extending in a direction essentially parallel to the length(s) of tubing, and being movable in relation to the tubing holder (2;12;62) to a position where the or each cut length of tubing (3;13;63) and the sterile tubing connector (7;17;67) are aligned and can be urged together. at least one tubing holder (2;12;62), adapted to receive one or more lengths of said tubing (3;13;63) and equipped with one or more sterilant applicators (4;14;64) adapted to apply a sterilant to the or each said length of tubing (3;13;63) upon reception of the tubing length(s) in the tubing holder (2;12;62), wherein said at least one tubing holder each comprises an essentially cylindrical port of a diameter suitable to receive a length of tubing, said port leading into a tubing end receiver located in a connector holder or into a cutting and connector compartment, and wherein said one or more sterilant applicators each comprises a tubular or slit tubular layer of a flexible open-porous material arranged on an inner surface of said port(s); at least one cutter (5;15;65), movable in relation to the tubing holder (2;12;62) in a direction essentially transverse to the length(s) of tubing, and adapted to cut the or each said length of tubing (3;13;63); and a connector holder (6;16;66) characterized in that the connector holder includes a compartment (8;18;68) housing a substantially sterile tubing connector (7;17;67), said connector holder extending in a direction essentially parallel to the length(s) of tubing, and being movable in relation to the tubing holder (2;12;62) to a position where the or each cut length of tubing (3;13;63) and the sterile tubing connector (7;17;67) are aligned and can be urged together.
An apparatus comprising: a matrix of thermoelectric devices (120a-120m) to set thermal gradients across an electronic component within a housing, wherein the electronic component is selected from a surface mounted and a through-hole mounted component mounted on a first surface of a printed circuit board substrate and the matrix of thermoelectric devices includes a plurality of thermoelectric devices arranged in a two-dimensional grid in a second surface of the substrate opposite the first surface; a matrix of thermosensitive devices (125a-125n-1) to measure thermal gradients associated with the electronic component, the matrix of thermosensitive devices including a plurality of thermosensitive devices mounted in a two-dimensional grid on the first surface of the substrate surrounding the electronic component and a thermosensitive device to measure ambient temperature within the enclosed housing; and a controller for controlling the matrix of thermoelectric devices based on the thermal gradients measured by the matrix of thermosensitive devices, the controller configured to identify an average thermal gradient associated with an external ambient temperature measured over a given time period, to stabilize temperature within the housing by establishing a temperature set-point above the average, and to maintain the temperature within the housing at the temperature set-point so that the temperature within the housing remains above the average. a matrix of thermoelectric devices (120a-120m) to set thermal gradients across an electronic component within a housing, wherein the electronic component is selected from a surface mounted and a through-hole mounted component mounted on a first surface of a printed circuit board substrate and the matrix of thermoelectric devices includes a plurality of thermoelectric devices arranged in a two-dimensional grid in a second surface of the substrate opposite the first surface; a matrix of thermosensitive devices (125a-125n-1) to measure thermal gradients associated with the electronic component, the matrix of thermosensitive devices including a plurality of thermosensitive devices mounted in a two-dimensional grid on the first surface of the substrate surrounding the electronic component and a thermosensitive device to measure ambient temperature within the enclosed housing; and a controller for controlling the matrix of thermoelectric devices based on the thermal gradients measured by the matrix of thermosensitive devices, the controller configured to identify an average thermal gradient associated with an external ambient temperature measured over a given time period, to stabilize temperature within the housing by establishing a temperature set-point above the average, and to maintain the temperature within the housing at the temperature set-point so that the temperature within the housing remains above the average.
A method for generating diagnostic test files associated with a battery pack, comprising: providing a diagnostic test data table having a plurality of records stored in a memory device, a first record of the plurality of records being associated with a first diagnostic test of the battery pack, the first record having a first parameter identifier, a first value associated with the first parameter identifier, and a second parameter identifier, a second value associated with the second parameter identifier, a fault threshold identifier, and a fault threshold value associated with the fault threshold identifier; generating a diagnostic test parameter configuration file having a data structure associated with the first diagnostic test utilizing a computer that accesses the diagnostic test data table, the data structure having a first parameter variable that is set equal to the first value, and a second parameter variable that is set equal to the second value; generating a diagnostic test software source code file based on the diagnostic test parameter configuration file utilizing a kernel translator program, the diagnostic test software source code file having an array with the first value and the second value that is associated with the first diagnostic test; and generating a diagnostic test software source code response file based on the diagnostic test data table utilizing the computer, the diagnostic test software source code response file having the fault threshold value, and a first response flag configured to be set to a third value based on a result of the first diagnostic test. providing a diagnostic test data table having a plurality of records stored in a memory device, a first record of the plurality of records being associated with a first diagnostic test of the battery pack, the first record having a first parameter identifier, a first value associated with the first parameter identifier, and a second parameter identifier, a second value associated with the second parameter identifier, a fault threshold identifier, and a fault threshold value associated with the fault threshold identifier; generating a diagnostic test parameter configuration file having a data structure associated with the first diagnostic test utilizing a computer that accesses the diagnostic test data table, the data structure having a first parameter variable that is set equal to the first value, and a second parameter variable that is set equal to the second value; generating a diagnostic test software source code file based on the diagnostic test parameter configuration file utilizing a kernel translator program, the diagnostic test software source code file having an array with the first value and the second value that is associated with the first diagnostic test; and generating a diagnostic test software source code response file based on the diagnostic test data table utilizing the computer, the diagnostic test software source code response file having the fault threshold value, and a first response flag configured to be set to a third value based on a result of the first diagnostic test.
An antisecretory factor protein as shown in SEQ ID NO: 1 and/or a homologue and/or fragment thereof having equivalent activity and comprising an amino acid sequence as shown in SEQ ID NO: 2 (AF-6), and/or a pharmaceutically active salt thereof, and/or a food and/or food supplement, enriched in said antisecretory factor protein and/or homologue and/or fragment thereof, for use in the treatment of glioblastoma.
A bookbinding machine comprising a plurality of processing stations (205a-205e) for processing book blocks (215a-215d), a plurality of transport elements (210a-210d) for transporting the book blocks (215a-215d) individually across the processing stations (205a-205e) in a transport direction along a transport path being closed, the bookbinding machine comprising: a plurality of endless conveyors (225a-225c) arranged in a wrap-around succession with corresponding exchange areas (230ab,230bc,230ca) at the transport path between pairs of adjacent ones of the endless conveyors (225a-225c), each of the endless conveyors (225a;225b;225c) carrying one or more conveying elements (305a1,305a2;305b;305c) distributed uniformly along the endless conveyor (225a;225b;225c) when more than one, and a driving system for driving the endless conveyors (225a-225c) to cause each of the conveying elements (305a1,305a2;305b;305c) of each of the endless conveyors (225a-225c) in succession to engage one of the transport elements (210a-210d) at a start one of the exchange areas (230ca;230ab;230bc) of the endless conveyor (225a-225c), to convey the transport element (210a-210d) along the transport path for an active section of the endless conveyor (225a-225c) from the start exchange area (230ca;230ab;230bc) to another end one of the exchange areas (230ab;230bc;230ca) thereof in the transport direction, to disengage the transport element (210a-210d) at the end exchange area (230ab;230bc;230ca) of the endless conveyor (225a-225c), and to return free of the transport elements (210a-210d) away from the transport path for a passive section of the endless conveyor (225a-225c) from the end exchange area (230ab;230bc;230ca) to the start exchange area (230ca;230ab;230bc) thereof in the transport direction, wherein the driving system drives the endless conveyors (225a-225c) at corresponding speeds each proportional to a ratio between a length of the corresponding endless conveyor (225a;225b;225c) and a number of the corresponding conveying elements (305a1,305a2;305b;305c) according to a common moving frequency.
A gown comprising: - a body covering portion with at least one opening in the back area, the body covering portion having top and bottom edges; characterized in that the gown further comprises at least two elastic strips, one end of each elastic strip being attached to the gown at one side of the opening in the back of the gown, and the other end of each elastic strip being attached to the gown at the other side of the opening in the back of the gown, both elastic strips thereby extending across the back opening, of which at last one elastic strip is located on the upper portion of the gown and the at least two elastic strips are spaced apart and parallel relative to the top and bottom edges of the gown. - a body covering portion with at least one opening in the back area, the body covering portion having top and bottom edges;
Method for three-dimensionally capturing a three-dimensional surface of a workpiece rotatable about an axis of rotation, which has coaxial bearing surfaces at opposite ends, comprising the steps of: Receiving the workpiece on the coaxial bearing surfaces in upwardly open bearing elements (18, 20), in which the workpiece is held with a horizontally aligned axis of rotation in a centred position purely by its own weight, characterised by the further steps Arranging an optical measurement apparatus operating according to the laser light section method with two sensors (38, 40) at a radial distance from the workpiece and aligning the measurement apparatus such that the laser light plane of the measurement apparatus is directed onto the workpiece and the sensors (18, 20) are aligned so that each sensor (18, 20) captures a different side of the plane that lies between the sensors and that is radial to the axis of rotation, Moving the measurement apparatus about the resting workpiece and measuring the three-dimensional position of a multiplicity of points of the three-dimensional surface of at least a portion of the workpiece from a plurality of positions into which the measurement apparatus is moved, wherein the movement of the measurement apparatus takes place along a circular trajectory and additionally along a trajectory tangential to the circular path. Receiving the workpiece on the coaxial bearing surfaces in upwardly open bearing elements (18, 20), in which the workpiece is held with a horizontally aligned axis of rotation in a centred position purely by its own weight, characterised by the further steps Arranging an optical measurement apparatus operating according to the laser light section method with two sensors (38, 40) at a radial distance from the workpiece and aligning the measurement apparatus such that the laser light plane of the measurement apparatus is directed onto the workpiece and the sensors (18, 20) are aligned so that each sensor (18, 20) captures a different side of the plane that lies between the sensors and that is radial to the axis of rotation, Moving the measurement apparatus about the resting workpiece and measuring the three-dimensional position of a multiplicity of points of the three-dimensional surface of at least a portion of the workpiece from a plurality of positions into which the measurement apparatus is moved, wherein the movement of the measurement apparatus takes place along a circular trajectory and additionally along a trajectory tangential to the circular path.