mhurhangee/ep-ind-claims huggingface dataset:
A portable dual-interface data carrier, comprising: - a metal layer being arranged between at least two plastic layers (1,3) to form at least a part of a body of the data carrier, characterized in that - the metal layer comprises a recess at least of a size of a carrier foil holding an antenna; and that - the carrier foil is attached to one of said at least two plastic layers (1,3) at a position of the recess and the carrier foil holding the antenna is inserted into the recess, - whereby the recess is a window being introduced in the metal layer. - a metal layer being arranged between at least two plastic layers (1,3) to form at least a part of a body of the data carrier, characterized in that - the metal layer comprises a recess at least of a size of a carrier foil holding an antenna; and that - the carrier foil is attached to one of said at least two plastic layers (1,3) at a position of the recess and the carrier foil holding the antenna is inserted into the recess, - whereby the recess is a window being introduced in the metal layer.
A method for processing and transferring data from a distributed file system to a database system, the method comprising the steps of: initially storing data in the distributed file system, such that this data is available for analysis using a MapReduce processing task; receiving a MapReduce task request for analyzing data, wherein the request is issued also loading data into the database system as a side-effect of executing the requested MapReduce task over the data in the distributed file system, wherein the data includes a plurality of attributes; parsing attributes from data received as a result of the request and determining, based on the request, at least one attribute of the data for loading into the database system, wherein the parsing and determining steps are implemented during a map function of the MapReduce task; and loading the at least one attribute of the data into the database system while continuing to process remaining attributes of the data within the framework of the MapReduce task performing data analysis in the distributed file system. initially storing data in the distributed file system, such that this data is available for analysis using a MapReduce processing task; receiving a MapReduce task request for analyzing data, wherein the request is issued also loading data into the database system as a side-effect of executing the requested MapReduce task over the data in the distributed file system, wherein the data includes a plurality of attributes; parsing attributes from data received as a result of the request and determining, based on the request, at least one attribute of the data for loading into the database system, wherein the parsing and determining steps are implemented during a map function of the MapReduce task; and loading the at least one attribute of the data into the database system while continuing to process remaining attributes of the data within the framework of the MapReduce task performing data analysis in the distributed file system.
A method for sensor-derived swing action detection, the method comprising: compressing a set of acceleration sensor values of a sensor array included in an article of clothing into a first lower dimension; extracting features from the compressed set of acceleration sensor values; clustering the features into a set of clusters; detecting a swing action based on a distance between members of the set of clusters; determining a velocity by calculating an integration along a time using acceleration sensor values representative of the swing action; identifying a set of positions of the sensor array at corresponding time stamps by calculating a velocity integration along the time using the velocity; reducing the set of positions using a plurality of sensor array output signal thresholds, including discarding relatively low acceleration sensor values and/or acceleration sensor values that demonstrate a large variance; calculating a centroid of the reduced set of positions; determining a first vector from the centroid to a first position of the reduced set of positions; determining a second vector from the first position to a second position succeeding the first position of the reduced set of positions; calculating a cross product of the first vector and the second vector; and determining a direction of the swing action using the cross product. compressing a set of acceleration sensor values of a sensor array included in an article of clothing into a first lower dimension; extracting features from the compressed set of acceleration sensor values; clustering the features into a set of clusters; detecting a swing action based on a distance between members of the set of clusters; determining a velocity by calculating an integration along a time using acceleration sensor values representative of the swing action; identifying a set of positions of the sensor array at corresponding time stamps by calculating a velocity integration along the time using the velocity; reducing the set of positions using a plurality of sensor array output signal thresholds, including discarding relatively low acceleration sensor values and/or acceleration sensor values that demonstrate a large variance; calculating a centroid of the reduced set of positions; determining a first vector from the centroid to a first position of the reduced set of positions; determining a second vector from the first position to a second position succeeding the first position of the reduced set of positions; calculating a cross product of the first vector and the second vector; and determining a direction of the swing action using the cross product.
Method for calibrating a regulation valve for a liquid medium like water, especially for drinking water, the regulation valve comprising: a valve housing providing a valve inlet chamber and a valve outlet chamber; a valve insert being positioned within said valve housing, said valve insert comprising a valve body, a valve plunger and a first spring element being positioned between the valve body and the valve plunger, whereby said valve body provides a valve seat for said valve plunger and whereby said first spring element provides a first spring force which tends to lift up said valve plunger from said valve seat; a thermo element being positioned directly in the flow of the liquid medium and carrying said valve plunger, said thermo element provides a thermo element force acting on the valve plunger depending on the temperature of the liquid medium within the valve housing, whereby said thermo element force provided by said thermo element is acting against the first spring force provided by said first spring element and thereby tends to press said valve plunger against said valve seat; the calibrating method comprising the following steps: positioning the regulation valve to be calibrated in a bath of a liquid medium having a defined calibration temperature in such a way that the thermo element of the regulation valve to be calibrated is positioned directly in said liquid medium of said bath; providing a relative movement between said valve body and said valveplunger of the regulation valve to be calibrated while the same in positioned in said bath in such a way that the valve plunger contacts the valve seat of said valve body. a valve housing providing a valve inlet chamber and a valve outlet chamber; a valve insert being positioned within said valve housing, said valve insert comprising a valve body, a valve plunger and a first spring element being positioned between the valve body and the valve plunger, whereby said valve body provides a valve seat for said valve plunger and whereby said first spring element provides a first spring force which tends to lift up said valve plunger from said valve seat; a thermo element being positioned directly in the flow of the liquid medium and carrying said valve plunger, said thermo element provides a thermo element force acting on the valve plunger depending on the temperature of the liquid medium within the valve housing, whereby said thermo element force provided by said thermo element is acting against the first spring force provided by said first spring element and thereby tends to press said valve plunger against said valve seat; positioning the regulation valve to be calibrated in a bath of a liquid medium having a defined calibration temperature in such a way that the thermo element of the regulation valve to be calibrated is positioned directly in said liquid medium of said bath; providing a relative movement between said valve body and said valveplunger of the regulation valve to be calibrated while the same in positioned in said bath in such a way that the valve plunger contacts the valve seat of said valve body.
A drive means for driving a brush element of an electric toothbrush, with - a first drive component for creating a magnetic field, - a second drive component, which, due to the effect of the magnetic field, can be driven both translationally and rotationally, - a transmission element, able to be displaced from a predetermined position, for transferring a translational and a rotatory movement of the second drive component along a longitudinal axis of the transmission element to the brush element, wherein the displacement of the transmission element from the said predetermined position along the longitudinal axis of the transmission element varies; characterized in that the second drive component is disposed axially next to the first drive component. - a first drive component for creating a magnetic field, - a second drive component, which, due to the effect of the magnetic field, can be driven both translationally and rotationally, - a transmission element, able to be displaced from a predetermined position, for transferring a translational and a rotatory movement of the second drive component along a longitudinal axis of the transmission element to the brush element, wherein the displacement of the transmission element from the said predetermined position along the longitudinal axis of the transmission element varies; characterized in that the second drive component is disposed axially next to the first drive component.
A reduced pressure treatment system comprising: a catheter having a distal end adapted to be positioned at a subcutaneous tissue site; a bioabsorbable filament deliverable to the tissue site through a lumen of the catheter such that a filament mass is formed at the tissue site by the bioabsorbable filament; and a reduced pressure delivery conduit adapted to fluidly communicate with a reduced pressure source and the filament mass to deliver a reduced pressure to the tissue site through the filament mass, characterised in that the reduced pressure treatment system also comprises a guide wire having an end positionable at the tissue site. a catheter having a distal end adapted to be positioned at a subcutaneous tissue site; a bioabsorbable filament deliverable to the tissue site through a lumen of the catheter such that a filament mass is formed at the tissue site by the bioabsorbable filament; and a reduced pressure delivery conduit adapted to fluidly communicate with a reduced pressure source and the filament mass to deliver a reduced pressure to the tissue site through the filament mass, characterised in that the reduced pressure treatment system also comprises a guide wire having an end positionable at the tissue site.
A cabinet for fiber optic cable management, comprising: an outer cabinet body; an inner cabinet body disposed at least partially within the outer cabinet body; and a duct-cable management system defined in a cavity of the cabinet; characterised by the duct-cable management system including a strain relief assembly having at least two pairs of alignment elements, an alignment wall extending horizontally between each pair of alignment elements, wherein the alignment wall couples the respective alignment element pair, wherein each alignment element has a plurality of strain relieving grooves, and wherein at least one strain relieving groove is configured to cut into a duct and provide strain relief when the duct is pushed into the at least one strain relieving groove. an outer cabinet body; an inner cabinet body disposed at least partially within the outer cabinet body; and a duct-cable management system defined in a cavity of the cabinet; characterised by the duct-cable management system including a strain relief assembly having at least two pairs of alignment elements, an alignment wall extending horizontally between each pair of alignment elements, wherein the alignment wall couples the respective alignment element pair, wherein each alignment element has a plurality of strain relieving grooves, and wherein at least one strain relieving groove is configured to cut into a duct and provide strain relief when the duct is pushed into the at least one strain relieving groove.
Device for detecting the finger pattern while a stringed instrument comprising at least two strings which are stretched between a scroll and a bridge over a curved fingerboard is played, said device comprising a sensor film that can be arranged on the fingerboard for detecting the finger pattern, which sensor film is formed by at least one resistance layer, a conducting layer, and a spacer layer arranged therebetween, and comprising an analysis circuit connected to the sensor film, by means of which analysis circuit the resistance changes in the sensor film which are caused by the finger pattern can be detected, the lower layer of the sensor film that faces the fingerboard in the mounted state being formed by the resistance layer, which resistance layer is divided into a number of resistance tracks that corresponds to the number of strings of the stringed instrument, and the upper layer of the sensor film that faces away from the fingerboard in the mounted state being formed by the conducting layer, characterised in that the width (b i) of each resistance track increases linearly from one end of the sensor film that faces the scroll in the mounted state to the other end of the sensor film that faces the bridge in the mounted state, in that the sensor film has, in a direction transverse to the longitudinal direction, a curvature that corresponds to the curve of the fingerboard, such that a substantially constant spacing between the resistance tracks and the conducting layer in the transverse direction of the sensor film results, and in that the analysis circuit has a plurality of inputs for parallel connection to each resistance track of the sensor film and for the parallel processing of the finger pattern.
A liquid crystal composition comprising three or more compounds represented by general formula (i) below, at least one compound represented by general formula (i'-2) below being contained as a compound represented by general formula (i) below, further comprising a compound represented by general formula (I-1-1) below, a compound represented by general formula (I-1-2) below, a compound represented by general formula below, and a compound represented by general formula below, and further comprising at least one compound selected from the group consisting of a compound represented by general formula (X-4) below, a compound represented by general formula (IX-1) below, a compound represented by general formula (XI-1) below, and a compound represented by general formula (VIII-1) below; in the formula, R i1 represents an alkyl group having 1 to 8 carbon atoms, and one or nonadjacent two or more -CH 2 - in the alkyl group may be each independently substituted by -CH=CH-, -C≡C-, -O-, -CO-, -COO-, or -OCO-; m i1 represents 1 or 2; A i1 represents a 1,4-cyclohexylene group or a 1,4-phenylene group which may have a fluorine atom or a chlorine atom substituted for a hydrogen atom, when m i1 represents 1, A i1 represents a 1,4-phenylene group which may have a fluorine atom or a chlorine atom substituted for a hydrogen atom, and when m i1 represents 2 and a plurality of A i1 are present, A i1 may be the same or different; and X i1 represents a hydrogen atom, a fluorine atom, or a chlorine atom; in the formula, R i1 represents the same meaning as R i1 in the general formula (i), and X i1 represents a fluorine atom; in the formulae, R 12 each independently represent an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 5 carbon atoms; in the formula, R 41 and R 42 each independently represent an alkyl group having 1 to 5 carbon atoms or an alkenyl group having 2 to 5 carbon atoms, X 41 represents a fluorine atom, and X 42 represents a hydrogen atom; in the formula, R 31 and R 32 each independently represent an alkenyl group having 2 to 5 carbon atoms, an alkyl group having 1 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; in the formula, X 102 represents a fluorine atom or a hydrogen atom, and R 10 represents an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; in the formula, R 9 represents an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms, X 92 represents a hydrogen atom or a fluorine atom, and Y 9 represents a fluorine atom or -OCF 3; in the formula, R 11 represents an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; in the formula, R 8 represents an alkyl group having 1 to 5 carbon atoms, an alkenyl group having 2 to 5 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms.
A method performed by a first portable terminal to communicate with a second portable terminal, the method comprising: executing an application on the first portable terminal; requesting, in response to execution of the application, contact information related to the first portable terminal from an external server; receiving contact information from the external server; displaying a contact list based on the received contact information on a screen of the first portable terminal; the first portable terminal receiving a user input indicating a selection of at least one contact, corresponding to the second portable terminal, from the contact list; the first portable terminal transmitting, over a mobile communication network to the external server, connection information necessary for the second portable terminal to establish a wireless local area network, WLAN, link with the first portable terminal, the first portable terminal establishing the WLAN link to the second portable terminal in response to a connection request received from the second portable terminal through a WLAN interface, wherein a connection mode of the WLAN link is determined according to a type of application executed. executing an application on the first portable terminal; requesting, in response to execution of the application, contact information related to the first portable terminal from an external server; receiving contact information from the external server; displaying a contact list based on the received contact information on a screen of the first portable terminal; the first portable terminal receiving a user input indicating a selection of at least one contact, corresponding to the second portable terminal, from the contact list; the first portable terminal transmitting, over a mobile communication network to the external server, connection information necessary for the second portable terminal to establish a wireless local area network, WLAN, link with the first portable terminal, the first portable terminal establishing the WLAN link to the second portable terminal in response to a connection request received from the second portable terminal through a WLAN interface, wherein a connection mode of the WLAN link is determined according to a type of application executed.
A burner system (2, 3), especially for use in a gas turbine, having an annular channel (6, 13) for the supply of combustion air, wherein the annular channel (6, 13) is formed by a hub and an outer casing and has an axis of symmetry, a fuel duct (4, 5, 19, 20, 21) for the supply of fuel arranged in said hub, a plurality of turbulence elements for generating highly turbulent combustion air and an inlet for fuel (10, 11, 15, 16, 17) from the fuel duct (4, 5, 19, 20, 21) into the annular channel (6, 13) downstream of the turbulence elements, wherein carrier elements of the turbulence elements extend in the radial direction from said hub to the outer casing and at least one wing is arranged on each of the carrier elements, wherein the projection of a wing, which is arranged radially toward the outside with respect to the axis of symmetry, onto a cross-sectional area of the annular channel (6, 13) is greater than the projection of a wing which is arranged radially toward the inside with respect to the axis of symmetry, characterized in that an angle of attack of the wings varies over the circumference of the annular channel (6, 13) or in the radial direction.
A method for determining a risk of a poor outcome in a congestive heart failure patient, the method comprising: assaying a Bridging integrator 1 expression level in a heart tissue sample obtained from the patient, wherein the patient is a human patient; and using the BIN1 expression level to determine the risk of a poor outcome in the patient, wherein a decreased BIN1 expression level relative to a reference BIN1 expression level is positively correlated to an increased risk of a poor outcome. assaying a Bridging integrator 1 expression level in a heart tissue sample obtained from the patient, wherein the patient is a human patient; and using the BIN1 expression level to determine the risk of a poor outcome in the patient, wherein a decreased BIN1 expression level relative to a reference BIN1 expression level is positively correlated to an increased risk of a poor outcome.
A high performance polyethylene (HPPE) member comprising at least 5 wt% of a radiopaque component, where the HPPE member has a Young's modulus of at least 30 GPa measured by the method described in example 6, is biocompatible, meaning that it comprises less than 100 ppm organic solvent, and the radiopaque component is a particulate at least partially arranged inside a HPPE filament of the HPPE member, and the radiopaque component has a particle size of at least 0.05 μm and at most 1 μm, measured as average particle diameter of primary particles by a Zetasizer nano after sonication in a sonics vibracell in decaline with 1% OLOA 1200.