mhurhangee/patent-ind-claim-en huggingface dataset:
A ring spinning machine with a reciprocating, displaceably supported spindle rail , • wherein the spindle rail can be driven by a motor via a shaft that passes through the ring spinning machine ; • wherein the spindle rail is arranged on two machine sides corresponding to a longitudinal orientation (x) of the ring spinning machine ; • wherein the spindle rail is subdivided into sections (9 1 , 9 2 , 9 3 ); and has cross braces (17, 17.1) in sections that connect the spindle rail of both sides of the machine; and • wherein the shaft is supported between the sections (9 1 , 9 2 , 9 3 ) of the spindle rail , characterized in that the spindle rail is suspended from at least one cam disc that is seated on the shaft , and torsional compensation of the torsion occurring in the shaft is provided on the shaft by means of at least one circumferentially biased spring . • wherein the spindle rail can be driven by a motor via a shaft that passes through the ring spinning machine ; • wherein the spindle rail is arranged on two machine sides corresponding to a longitudinal orientation (x) of the ring spinning machine ; • wherein the spindle rail is subdivided into sections (9 1 , 9 2 , 9 3 ); and has cross braces (17, 17.1) in sections that connect the spindle rail of both sides of the machine; and • wherein the shaft is supported between the sections (9 1 , 9 2 , 9 3 ) of the spindle rail ,
Windscreen wiper device having at least one wiper blade adapter (18a; 18b), having at least one wiper arm (14a; 14b), having at least one fluid channel (22a; 22b) arranged on the wiper arm (14a; 14b), and having at least one connecting unit (16a; 16b) for the fluidic connection of the fluid channel (22a; 22b) to the wiper blade adapter (18a; 18b), in particular to a fluid connection unit (24a; 24b) of the wiper blade adapter (18a; 18b), characterized in that the connecting unit (16a; 16b) has at least one bayonet closure (26a; 26b), by means of which the fluid channel (22a; 22b) is fastenable to the wiper blade adapter (18a; 18b), in particular to the fluid connection unit (24a; 24b) of the wiper blade adapter (18a; 18b), wherein the connecting unit (16a; 16b) has at least one guide element (28a; 28b) which forms an, in particular at least partially open, guide track which is provided for guiding at least one connecting element (33a; 33b) of the connecting unit (16a; 16b) when the fluid channel (22a; 22b) is fastened to the wiper blade adapter (18a; 18b), or wherein the connecting unit has at least one sealing element which is at least partially arranged on the bayonet closure , in particular on a connecting element of the connecting unit .
A verification information creation system comprising: an acquisition section configured to acquire a file path and a hash value of a file to be checked using the hash value during verification of the file out of files contained in a software package by executing a predetermined command for the software package; a verification information creation section configured to create verification information used to verify software in the software package, the verification information including the file path and the hash value of the file, the file path and the hash value being acquired by the acquisition section ; and a verification apparatus configured to create collation information by deleting information about a software file not installed on the verification apparatus itself out of information about files indicated by the verification information, and determine whether a file on a file path indicated by the collation information has been falsified when access to the file is detected on the verification apparatus , where the verification apparatus makes the determination using a hash value of the file as indicated by the collation information and a hash value of the accessed file. an acquisition section configured to acquire a file path and a hash value of a file to be checked using the hash value during verification of the file out of files contained in a software package by executing a predetermined command for the software package; a verification information creation section configured to create verification information used to verify software in the software package, the verification information including the file path and the hash value of the file, the file path and the hash value being acquired by the acquisition section ; and a verification apparatus configured to create collation information by deleting information about a software file not installed on the verification apparatus itself out of information about files indicated by the verification information, and determine whether a file on a file path indicated by the collation information has been falsified when access to the file is detected on the verification apparatus , where the verification apparatus makes the determination using a hash value of the file as indicated by the collation information and a hash value of the accessed file.
Method for testing and/or calibrating a circuit arrangement comprising a sensor electrode , a first circuit unit that is electrically coupled to the sensor electrode , and a second circuit unit that comprises a first capacitor ; the first circuit unit being configured so as to keep the electrical potential of the sensor electrode in a specifiable first reference range around a specifiable target electrical potential by means of the first capacitor and the sensor electrode being coupled such that matching of the electrical potential is made possible; the second circuit unit being configured such that, if the electrical potential of the first capacitor is outside a second reference range, said unit detects this event and brings the first capacitor to a first electrical reference potential, and at the sensor electrode a connectible reference current source being provided, which source provides a known reference current (R) when the reference current source is connected to the sensor electrode , such that the reference current (R) is injected into the sensor electrode and/or into said circuit unit , characterised in that the reference current source is adjusted so as to inject into the sensor electrode no current as well as a first reference current (R) having a first current strength and at least one second reference current (R) having a second current strength that is different from the first current strength; and/or in that a measurement result (M) is generated and analysed in a manner dependent on the reference current (R) injected into the sensor electrode and/or into a sensor electrode of another circuit arrangement in order to determine a short circuit of the sensor electrode and/or a connection problem between the sensor electrode and the first circuit unit ; and/or in that the reference current source injects the reference current (R) on the one hand into a first portion and on the other hand into another, second portion of the sensor electrode , preferably wherein the first portion forms part of an interdigital structure and the second portion is provided in the region of a connection line or wiring between the interdigital structure and the first circuit unit .
A system for medical device detection, comprising: a guidance system configured to deliver a surgical device into a subj ect; a surgical device deployment detector configured to cooperate with the guidance system and configured to detect a deployment of the surgical device in the subject, comprising a vibration and/or motion detector mounted on the guidance system and configured to monitor vibration and/or sudden motion from the guidance system , and the surgical device deployment detector includes a spatial tracking system configured to determine a location of the surgical device during delivery thereof into a subject; and a coordination module configured to receive input from the guidance system and at least one input from the deployment detector to coordinate the inputs to determine and record of both location and time of each deployment. a guidance system configured to deliver a surgical device into a subj ect; a surgical device deployment detector configured to cooperate with the guidance system and configured to detect a deployment of the surgical device in the subject, comprising a vibration and/or motion detector mounted on the guidance system and configured to monitor vibration and/or sudden motion from the guidance system , and the surgical device deployment detector includes a spatial tracking system configured to determine a location of the surgical device during delivery thereof into a subject; and a coordination module configured to receive input from the guidance system and at least one input from the deployment detector to coordinate the inputs to determine and record of both location and time of each deployment.
A method in a user equipment, UE , the method comprising: receiving (S302) a measurement configuration message via a radio network node , the measurement configuration message being received over a control plane, the measurement configuration message comprising network location information associated with a measurement configuration file; retrieving (S306) the measurement configuration file from a server using the received network location information, the measurement configuration file being retrieved over a user plane. receiving (S302) a measurement configuration message via a radio network node , the measurement configuration message being received over a control plane, the measurement configuration message comprising network location information associated with a measurement configuration file; retrieving (S306) the measurement configuration file from a server using the received network location information, the measurement configuration file being retrieved over a user plane.
Mounting tool having a longitudinal axis for driving a plate screw having a retaining plate into a screw anchor for fastening an insulating panel to a substructure, comprising - a tool housing with a front side (2.1) and a rear side (2.2), with a housing chamber open to the front side (2.2), - a stop disc arranged non-rotatably on the front side of the tool housing with a central opening (3.1), - a drive shaft that can be connected to a drive machine, characterized by - a screwdriver bit attached to a rear side (10.1) of the housing chamber on the tool housing and having a screw-driving profile (15.1), wherein the screwdriver bit extends so far through the central opening (3.1) in the stop disc that at least the screw-driving profile (15.1) protrudes beyond the surface of the stop disc , - a slip clutch arranged between the drive shaft and the tool housing having an outer body (7.1) and a hub part (7.2), wherein the outer body (7.1) is connected to the tool housing in a rotationally fixed manner and the hub part (7.2) is connected to the drive shaft in a rotationally fixed manner, wherein a cavity is arranged on a rear side (2.2) of the tool housing and the outer body (7.1) of the slip clutch is fixed in the cavity of the tool housing so that it cannot rotate. - a tool housing with a front side (2.1) and a rear side (2.2), with a housing chamber open to the front side (2.2), - a stop disc arranged non-rotatably on the front side of the tool housing with a central opening (3.1), - a drive shaft that can be connected to a drive machine, characterized by - a screwdriver bit attached to a rear side (10.1) of the housing chamber on the tool housing and having a screw-driving profile (15.1), wherein the screwdriver bit extends so far through the central opening (3.1) in the stop disc that at least the screw-driving profile (15.1) protrudes beyond the surface of the stop disc , - a slip clutch arranged between the drive shaft and the tool housing having an outer body (7.1) and a hub part (7.2), wherein the outer body (7.1) is connected to the tool housing in a rotationally fixed manner and the hub part (7.2) is connected to the drive shaft in a rotationally fixed manner, wherein a cavity is arranged on a rear side (2.2) of the tool housing and the outer body (7.1) of the slip clutch is fixed in the cavity of the tool housing so that it cannot rotate.
A method of making a modified zeolite catalyst, the method comprising: (i) obtaining a commercially available zeolite Y catalyst having a Na 2 O content of from 2.0 to 4.0%; (ii) subjecting the zeolite to a two stage ion-exchange process, wherein the first ion-exchange process comprises admixing the zeolite with an ammonium salt solution at between 50 and 85°C for between 10 and 60 minutes; (iii) subjecting the zeolite to a second ion-exchange process, wherein the second ion-exchange process comprises admixing the zeolite with an ammonium salt solution at between 90 and 100°C for between 60 and 240 minutes; (iv) steam calcining the zeolite from step (iii) at between 450 and 800°C for between 10 minutes and 60 minutes; (v) subjecting the zeolite of step (iv) to an ion-exchange process, wherein the ion-exchange process comprises admixing the zeolite of step (iv) with an ammonium salt solution at between 50 and 95°C for between 10 and 120 minutes; and (vi) subjecting the zeolite of step (v) to a transition metal ion-exchange process, wherein the ion-exchange process comprises admixing the zeolite of step (v) with a transition metal salt solution wherein the transition metal in the transition metal salt solution is selected from the group comprising: Fe, Ru, Os, Co, Rh, Ir, Ni, Pd and Pt. (i) obtaining a commercially available zeolite Y catalyst having a Na 2 O content of from 2.0 to 4.0%; (ii) subjecting the zeolite to a two stage ion-exchange process, wherein the first ion-exchange process comprises admixing the zeolite with an ammonium salt solution at between 50 and 85°C for between 10 and 60 minutes; (iii) subjecting the zeolite to a second ion-exchange process, wherein the second ion-exchange process comprises admixing the zeolite with an ammonium salt solution at between 90 and 100°C for between 60 and 240 minutes; (iv) steam calcining the zeolite from step (iii) at between 450 and 800°C for between 10 minutes and 60 minutes; (v) subjecting the zeolite of step (iv) to an ion-exchange process, wherein the ion-exchange process comprises admixing the zeolite of step (iv) with an ammonium salt solution at between 50 and 95°C for between 10 and 120 minutes; and (vi) subjecting the zeolite of step (v) to a transition metal ion-exchange process, wherein the ion-exchange process comprises admixing the zeolite of step (v) with a transition metal salt solution wherein the transition metal in the transition metal salt solution is selected from the group comprising: Fe, Ru, Os, Co, Rh, Ir, Ni, Pd and Pt.
An aircraft ventilation fan , comprising: a shaft assembly extending along an axis and disposed within a housing assembly , the shaft assembly including a first shaft having a first shaft first portion , defining a first port , and a first shaft second portion , defining a second port , operatively connected to a second shaft having a second shaft first portion . defining a third port, and a second shaft second portion ; a rotor having a rotor first portion disposed about the first shaft first portion and a rotor second portion extending from the rotor first portion , the rotor first portion defining a rotor port ; a motor housing disposed about the first shaft second portion , the motor housing having a housing arm , a housing leg extending from the housing arm , a housing extension extending from the housing leg , and a vane platform extending from the housing extension ; a first opening being defined between respective ends of the rotor second portion and the vane platform ; a bearing housing operatively connected to the motor housing and disposed about the second shaft second portion , the bearing housing having a bearing arm , a bearing leg extending from the bearing arm , and a bearing extension extending from the bearing leg; and a first journal air bearing that rotatably supports the shaft assembly , the first journal air bearing being positioned radially between the housing arm and the first shaft second portion and positioned axially between the first port and the second port . a shaft assembly extending along an axis and disposed within a housing assembly , the shaft assembly including a first shaft having a first shaft first portion , defining a first port , and a first shaft second portion , defining a second port , operatively connected to a second shaft having a second shaft first portion . defining a third port, and a second shaft second portion ; a rotor having a rotor first portion disposed about the first shaft first portion and a rotor second portion extending from the rotor first portion , the rotor first portion defining a rotor port ; a motor housing disposed about the first shaft second portion , the motor housing having a housing arm , a housing leg extending from the housing arm , a housing extension extending from the housing leg , and a vane platform extending from the housing extension ; a first opening being defined between respective ends of the rotor second portion and the vane platform ; a bearing housing operatively connected to the motor housing and disposed about the second shaft second portion , the bearing housing having a bearing arm , a bearing leg extending from the bearing arm , and a bearing extension extending from the bearing leg; and a first journal air bearing that rotatably supports the shaft assembly , the first journal air bearing being positioned radially between the housing arm and the first shaft second portion and positioned axially between the first port and the second port .
Method for determining the concentration of cationic polymers present in a sample, according to the following steps: - bringing the cationic polymer(s) present in the sample into contact with, and enabling the interaction thereof with, a developer solution comprising lanthanide (III) ions and at least one bonding agent, - exciting the sample at an excitation wavelength λ exc and detecting, by time-resolved photoluminescence, a signal from the lanthanide (III) ions that have interacted with at least one bonding agent having previously interacted with the cationic polymer(s) at an emission wavelength λ em , and - determining the cationic polymer concentration of the sample using the signal detected at the emission wavelength λ em , the sample originating from water obtained from water treatment processes or from municipal or industrial sludge, the bonding agent is selected from sulfonated poly(carboxylic acids), non-sulfonated poly(carboxylic acids), poly(acetic)amine derivatives, copolymers of sulfonated monomers, and nitrogenous macrocycles functionalized with carboxylic acid groups. - bringing the cationic polymer(s) present in the sample into contact with, and enabling the interaction thereof with, a developer solution comprising lanthanide (III) ions and at least one bonding agent, - exciting the sample at an excitation wavelength λ exc and detecting, by time-resolved photoluminescence, a signal from the lanthanide (III) ions that have interacted with at least one bonding agent having previously interacted with the cationic polymer(s) at an emission wavelength λ em , and - determining the cationic polymer concentration of the sample using the signal detected at the emission wavelength λ em ,
Polymeric amino (meth)acrylate suitable for use in radiation curable compositions, wherein said polymeric amino (meth)acrylate is the reaction product of a secondary amine-terminated copolymer (A) and a multifunctional (meth)acrylate (B); wherein said secondary amine-terminated copolymer is the reaction product of a difunctional (meth)acrylate (Ai) and a bireactive amine (Aii); and wherein the multifunctional (meth) acrylate (B) is different from the difunctional (meth)acrylate (Ai) and which multifunctional (meth) acrylate comprises two or more (meth)acrylate groups. wherein said secondary amine-terminated copolymer is the reaction product of a difunctional (meth)acrylate (Ai) and a bireactive amine (Aii); and wherein the multifunctional (meth) acrylate (B) is different from the difunctional (meth)acrylate (Ai) and which multifunctional (meth) acrylate comprises two or more (meth)acrylate groups.
An active imaging system comprising a first laser illuminator , adapted to illuminate a scene, including a target with pulses of light; and a camera system arranged to receive light from the first laser illuminator that has been reflected by the scene; wherein the camera system is adapted to use a first gate period for receiving returns from the first laser illuminator to obtain a first image of the scene including the target; the active imaging system characterised in comprising a second laser illuminator , adapted to illuminate the scene, including the target, with pulses of light; the camera system arranged to receive light from the second laser illuminator that has been reflected by the scene; the pulses of light emitted from the first laser illuminator having a broader spectral linewidth and a longer pulse duration compared with pulses of light from the second laser illuminator; and wherein the camera system is adapted to: use a second gate period shorter than the first gate period to receive returns from the second laser illuminator to obtain a second image of the target that selectively excludes non-target foreground and background elements within the scene; and an image processing means adapted to use the second image as a template to selectively remove the non-target foreground and background elements from the first image . wherein the camera system is adapted to use a first gate period for receiving returns from the first laser illuminator to obtain a first image of the scene including the target; the active imaging system characterised in comprising a second laser illuminator , adapted to illuminate the scene, including the target, with pulses of light; the camera system arranged to receive light from the second laser illuminator that has been reflected by the scene; the pulses of light emitted from the first laser illuminator having a broader spectral linewidth and a longer pulse duration compared with pulses of light from the second laser illuminator; and wherein the camera system is adapted to: use a second gate period shorter than the first gate period to receive returns from the second laser illuminator to obtain a second image of the target that selectively excludes non-target foreground and background elements within the scene; and an image processing means adapted to use the second image as a template to selectively remove the non-target foreground and background elements from the first image .