mhurhangee/ep-ind-claims huggingface dataset:
A fracturing method for providing fractures in a formation downhole for optimising hydro-carbon production, such as gas or shale gas production, in a well having a well tubular metal structure comprising several self-closing flow assemblies, each self-closing flow assembly comprising a sleeve which is movable along a longitudinal axis of the well tubular metal structure for opening or closing a port in the well tubular metal structure, the method comprising: - providing fracturing fluid derived from in situ hydro-carbons, - submerging an activation device into the well tubular metal structure, - pressurising the well tubular metal structure by means of the fracturing fluid derived from in situ hydro-carbons for moving the activation device towards a first self-closing flow assembly (3, 3a), - engaging the sleeve of the first self-closing flow assembly by means of the activation device, - further pressurising the well tubular metal structure by means of the fracturing fluid derived from in situ hydro-carbons for moving the sleeve of the first self-closing flow assembly and thereby opening the port, - injecting the fracturing fluid derived from in situ hydro-carbons through the port of the first self-closing flow assembly for providing fractures in the formation, - decreasing a pressure of the fracturing fluid for releasing the activation device from the first self-closing flow assembly, thereby closing the port, wherein the decrease of pressure of the fracturing fluid to release the activation device is between 0,5 - 20%, and - moving the activation device by means of pressurised fracturing fluid for engaging a second self-closing flow assembly (3, 3b). - providing fracturing fluid derived from in situ hydro-carbons, - submerging an activation device into the well tubular metal structure, - pressurising the well tubular metal structure by means of the fracturing fluid derived from in situ hydro-carbons for moving the activation device towards a first self-closing flow assembly (3, 3a), - engaging the sleeve of the first self-closing flow assembly by means of the activation device, - further pressurising the well tubular metal structure by means of the fracturing fluid derived from in situ hydro-carbons for moving the sleeve of the first self-closing flow assembly and thereby opening the port, - injecting the fracturing fluid derived from in situ hydro-carbons through the port of the first self-closing flow assembly for providing fractures in the formation, - decreasing a pressure of the fracturing fluid for releasing the activation device from the first self-closing flow assembly, thereby closing the port, wherein the decrease of pressure of the fracturing fluid to release the activation device is between 0,5 - 20%, and - moving the activation device by means of pressurised fracturing fluid for engaging a second self-closing flow assembly (3, 3b).
Lifting relay (400, 500) with a movable actuating element on which a first lifting magnet acts in a force-transmitting manner, wherein the lifting relay (400, 500) comprises at least one second lifting magnet which acts in a force-transmitting manner on the same movable actuating element (50, 150) and the magnetic force of which can be adjusted independently of the magnetic force of the first lifting magnet, wherein the actuating element comprises a magnetic portion and both the magnetic force of the first lifting magnet and the magnetic force of the second lifting magnet act on the magnetic portion of the actuator, characterised in that the first lifting magnet (10, 110) and the second lifting magnet (20, 40; 120, 140) are each formed as a winding portion of a continuous winding comprising a tap separating the winding portion of the first lifting magnet from the winding portion of the second lifting magnet.
An ice-maker for a home appliance, the ice-maker comprising: an upper tray having a plurality of hemispherical upper chambers defined therein; a lower tray disposed beneath the upper tray and having a plurality of hemispherical lower chambers defined therein, wherein the lower tray is pivotable, with respect to the upper tray, between an open position and a closed position, and wherein the lower tray in the closed position is configured to be in contact with the upper tray to define a plurality of ice chambers therebetween, wherein each ice chamber comprises one lower chamber and one upper chamber in contact with each other; a driver for pivoting the lower tray; and wherein the upper tray comprises at least one rib formed along a circumference of at least one of the upper chambers, wherein the at least one rib of the upper tray is shaped to extend towards and to contact the lower tray in the closed position; and/or wherein the lower tray comprises at least one rib (253a, 253b) formed along a circumference of at least one of the lower chambers, wherein the at least one rib (253a, 253b) of the lower tray is shaped to extend towards and to contact the upper tray in the closed position; characterized in that a height of the at least one rib (153d, 253a, 253b) increases in a direction farther away from a pivoting shaft of the lower tray. an upper tray having a plurality of hemispherical upper chambers defined therein; a lower tray disposed beneath the upper tray and having a plurality of hemispherical lower chambers defined therein, wherein the lower tray is pivotable, with respect to the upper tray, between an open position and a closed position, and wherein the lower tray in the closed position is configured to be in contact with the upper tray to define a plurality of ice chambers therebetween, wherein each ice chamber comprises one lower chamber and one upper chamber in contact with each other; a driver for pivoting the lower tray; and wherein the upper tray comprises at least one rib formed along a circumference of at least one of the upper chambers, wherein the at least one rib of the upper tray is shaped to extend towards and to contact the lower tray in the closed position; and/or wherein the lower tray comprises at least one rib (253a, 253b) formed along a circumference of at least one of the lower chambers, wherein the at least one rib (253a, 253b) of the lower tray is shaped to extend towards and to contact the upper tray in the closed position; characterized in that a height of the at least one rib (153d, 253a, 253b) increases in a direction farther away from a pivoting shaft of the lower tray.
A terry article comprising: a ground component including a plurality of ground warp yarns and a plurality of weft yarns interwoven with the plurality of ground warp yarns, the ground component including a first side and a second side opposed to the first side along a vertical direction; and a first pile component disposed on the second side, the first pile component including a first plurality of piles that extend away from the ground component along the vertical direction; and a second pile component disposed on the first side or the second side, the second pile component including a second plurality of piles that extend away from the ground component along the vertical direction, wherein the first plurality of piles are formed from a first set of pile yarns comprising natural fibers, the first plurality of piles including a first pile base located at the ground component, a first pile end spaced apart from the first pile base, and a first pile height that extends from the first pile base to the first pile end along the vertical direction; and wherein the second plurality of piles are formed from a second set of pile yarns, the second plurality of piles including a second pile base at the ground component, a second pile end spaced apart from the second pile base, and a second pile height that extends from the second pile base to the second pile end along the vertical direction, wherein the second pile height is less than the first pile height, characterized in that the second set of pile yarns comprises a blend of natural fibers and thermoplastic staple fibers.
A method for determining the geologic age of a sample of a naturally-occurring substance comprising: using a chromatographic column to separate the sample into one or more species of interest each having an elution time, the species of interest being an elemental compound associated with an organic fraction; supplying the one or more species of interest to a mass spectrometer, the mass spectrometer configured for two or more elemental masses including radioactive-parent mass and radiogenic-daughter mass, wherein each of the selected two or more elemental masses are included in at least one of the one or more species of interest; generating, via the mass spectrometer supplied with the one or more species of interest, an intensity-versus-time data set for each of the two or more elemental masses, wherein each of the intensity-versus-time data sets includes one or more intensity peaks, each of the intensity peaks corresponding to one of the species of interest; identifying a set of intensity peaks having members from each of at least two of the intensity-versus-time data sets, each member of the set of intensity peaks having substantially the same elution time, the members corresponding to a single species of interest; and determining the geologic age of the sample using ratios of the members of the set of intensity peaks. using a chromatographic column to separate the sample into one or more species of interest each having an elution time, the species of interest being an elemental compound associated with an organic fraction; supplying the one or more species of interest to a mass spectrometer, the mass spectrometer configured for two or more elemental masses including radioactive-parent mass and radiogenic-daughter mass, wherein each of the selected two or more elemental masses are included in at least one of the one or more species of interest; generating, via the mass spectrometer supplied with the one or more species of interest, an intensity-versus-time data set for each of the two or more elemental masses, wherein each of the intensity-versus-time data sets includes one or more intensity peaks, each of the intensity peaks corresponding to one of the species of interest; identifying a set of intensity peaks having members from each of at least two of the intensity-versus-time data sets, each member of the set of intensity peaks having substantially the same elution time, the members corresponding to a single species of interest; and determining the geologic age of the sample using ratios of the members of the set of intensity peaks.
A display device, comprising: a display panel including a first surface, a second surface opposite to the first surface, and a light emitter arranged to emit light including display information from the second surface; a first film on the first surface of the display panel; and a second film on the second surface of the display panel, wherein the display panel includes a side surface that connects the first surface and the second surface, wherein a side surface of the second film protrudes outwardly more than a side surface of the first film with respect to the side surface of the display panel, and wherein the entire side surface of the second film is inclined at an angle greater than about 90 degrees with respect to the second surface; wherein the side surface of the display panel protrudes outwardly more than the side surface of the first film, and wherein the entire side surface of the display panel is inclined at an angle less than about 90 degrees with respect to the second surface, and wherein the entire side surface of the first film is inclined at an angle less than about 90 degrees with respect to the second surface. a display panel including a first surface, a second surface opposite to the first surface, and a light emitter arranged to emit light including display information from the second surface; a first film on the first surface of the display panel; and a second film on the second surface of the display panel, wherein the display panel includes a side surface that connects the first surface and the second surface, wherein a side surface of the second film protrudes outwardly more than a side surface of the first film with respect to the side surface of the display panel, and wherein the entire side surface of the second film is inclined at an angle greater than about 90 degrees with respect to the second surface; wherein the side surface of the display panel protrudes outwardly more than the side surface of the first film, and wherein the entire side surface of the display panel is inclined at an angle less than about 90 degrees with respect to the second surface, and wherein the entire side surface of the first film is inclined at an angle less than about 90 degrees with respect to the second surface.
A liquid crystal display, comprising: a back light unit; a light valve panel disposed on the back light unit, and including a plurality of first unit pixel areas; and a video display panel disposed on the light valve panel, and including a plurality of second unit pixel areas, characterised in that each first unit pixel area has a rhomboid shape and each second unit pixel area has a quadrate shape, wherein the rhomboid shape corresponds to the quadrate shape rotated by 45 degrees. a back light unit; a light valve panel disposed on the back light unit, and including a plurality of first unit pixel areas; and a video display panel disposed on the light valve panel, and including a plurality of second unit pixel areas, characterised in that each first unit pixel area has a rhomboid shape and each second unit pixel area has a quadrate shape, wherein the rhomboid shape corresponds to the quadrate shape rotated by 45 degrees.
An interdental cleaning device adapted for use with a dental floss roll, said interdental cleaning device including a main body defining a receiving space configured to receive the dental floss roll, and a floss holder pivotally connected to said main body and defining a guiding channel that is in spatial communication with said receiving space, said floss holder having a securing end, and an open end that is spaced apart from said securing end and that is formed with an opening to spatially communicate said guiding channel with external environment, a to-be-used segment of the dental floss roll being extendible through said opening of said open end via said guiding channel so as to be secured at said securing end of said floss holder, wherein said main body has a connecting portion, said floss holder including a bow portion that is connected to and rotatable relative to said connecting portion of said main body, and that is provided with said open end, wherein said connecting portion of said main body is formed with a through hole, said floss holder further including a sleeve portion that is connected to said bow portion and that extends into said through hole, and an adjusting unit, characterized in that said adjusting unit includes an adjusting screw that extends into and is retained at said sleeve portion, and an adjusting cap that is coupled co-rotatably to said adjusting screw and that cooperates with said adjusting screw to form said securing end of said floss holder.
A method of a base station, the method comprising: transmitting system information including information on resource groups,; receiving, from a terminal, a resource allocation request; receiving, from the terminal, a control message including location information of a first zone where the terminal is located; and allocating at least one resource group among the resource groups based on the location information, wherein each of the resource groups includes a set of resources determined based on predetermined criteria, and wherein a number of the at least one resource group allocated to the terminal is determined based on a number of terminals in a connected state and a number of terminals in an idle state that are located in the first zone. transmitting system information including information on resource groups,; receiving, from a terminal, a resource allocation request; receiving, from the terminal, a control message including location information of a first zone where the terminal is located; and allocating at least one resource group among the resource groups based on the location information, wherein each of the resource groups includes a set of resources determined based on predetermined criteria, and wherein a number of the at least one resource group allocated to the terminal is determined based on a number of terminals in a connected state and a number of terminals in an idle state that are located in the first zone.
An isolated antibody which binds to CD74 variants 1 and 2, which comprises: (a) a V H region comprising the sequence of SEQ ID NO: 19 and a V L region comprising the sequence of SEQ ID NO: 26; (b) a V H region comprising the sequence of SEQ ID NO: 7 and a V L region comprising the sequence of SEQ ID NO: 23; or (c) a V H region comprising the sequence of SEQ ID NO: 11 and a V L region comprising the sequence of SEQ ID NO: 26. (a) a V H region comprising the sequence of SEQ ID NO: 19 and a V L region comprising the sequence of SEQ ID NO: 26; (b) a V H region comprising the sequence of SEQ ID NO: 7 and a V L region comprising the sequence of SEQ ID NO: 23; or (c) a V H region comprising the sequence of SEQ ID NO: 11 and a V L region comprising the sequence of SEQ ID NO: 26.
A process of making a diagnosis of invasive cancer, comprising: (a) isolating or extracting circulating tumor cells by passing an anticoagulated blood sample or an anticoagulated diluted blood sample obtained from a subject at risk of developing a cancer,_by vertical filtration through a filter and recovering isolated or extracted cells that do not pass through the filter; wherein the filter has a pore size comprised between 3 and 100 μm, and a pore density of between 3 x 10 3 and 5 x 10 6 pores/cm 2 and wherein the filter retains circulating tumor cells but permits passage of blood cells smaller than the circulating tumor cells through the filter; (b) analyzing the cells from (a) using cytomorphological analysis, and/or immunolabeling, and/or in situ molecular analysis, and/or molecular analysis of DNA, and/or RNA, and/or microRNA, and/or molecular analysis of protein molecules to determine whether circulating tumor cells are present, thereby determining the subject's risk of having a cancer. (a) isolating or extracting circulating tumor cells by passing an anticoagulated blood sample or an anticoagulated diluted blood sample obtained from a subject at risk of developing a cancer,_by vertical filtration through a filter and recovering isolated or extracted cells that do not pass through the filter; wherein the filter has a pore size comprised between 3 and 100 μm, and a pore density of between 3 x 10 3 and 5 x 10 6 pores/cm 2 and wherein the filter retains circulating tumor cells but permits passage of blood cells smaller than the circulating tumor cells through the filter; (b) analyzing the cells from (a) using cytomorphological analysis, and/or immunolabeling, and/or in situ molecular analysis, and/or molecular analysis of DNA, and/or RNA, and/or microRNA, and/or molecular analysis of protein molecules to determine whether circulating tumor cells are present, thereby determining the subject's risk of having a cancer.
A system for monitoring a mechanically ventilated patient, comprising: at least one internal probe for at least one of transmitting and receiving an RF signal, the internal probe set to be mounted on an elongated guiding element set for insertion via the pharynx into a tract of a patient, the internal probe and elongated guiding element are configured to be directly inserted into the tract independently of another guiding device; at least one external probe which is set to be positioned in a location outside the body for at least one of transmitting and receiving an RF signal; a processing unit configured to analyze an RF signal transmitted between at least one transducer of the at least one internal probe and at least one transducer of the at least one external probe, propagating via at least one tissue of the patient between walls of the tract and a skin layer of the patient, to estimate at least one dielectric property of the at least one tissue; wherein the RF signals are unsuitable for generating anatomical images of the at least one tissues, characterized in that the processing unit analyses the RF signal to assess lung ventilation through the at least one tissue; wherein the processing unit generates a signal for adjusting a mechanical ventilation machine ventilating the patient based on the assessed lung ventilation, the generated signal transmitted to at least one of a monitor for display to a user and a ventilation controller of the mechanical ventilation machine for automatically adjusting the mechanical ventilation machine. at least one internal probe for at least one of transmitting and receiving an RF signal, the internal probe set to be mounted on an elongated guiding element set for insertion via the pharynx into a tract of a patient, the internal probe and elongated guiding element are configured to be directly inserted into the tract independently of another guiding device; at least one external probe which is set to be positioned in a location outside the body for at least one of transmitting and receiving an RF signal; a processing unit configured to analyze an RF signal transmitted between at least one transducer of the at least one internal probe and at least one transducer of the at least one external probe, propagating via at least one tissue of the patient between walls of the tract and a skin layer of the patient, to estimate at least one dielectric property of the at least one tissue; wherein the RF signals are unsuitable for generating anatomical images of the at least one tissues, characterized in that the processing unit analyses the RF signal to assess lung ventilation through the at least one tissue; wherein the processing unit generates a signal for adjusting a mechanical ventilation machine ventilating the patient based on the assessed lung ventilation, the generated signal transmitted to at least one of a monitor for display to a user and a ventilation controller of the mechanical ventilation machine for automatically adjusting the mechanical ventilation machine.
A frame for carrying a load in a wind turbine, the frame comprising: - a first beam and a second beam extending in a lengthwise direction, - a third beam extending in a transverse direction between a first joint on the first beam and a second joint on the second beam, the third beam configured for carrying the load, and - a stress-inducing cross-shaped structure forming four legs joined at an intersection and extending therefrom towards four ends, where two of the four ends are attached on opposite sides of the joint on the first beam and the other two of the four ends are attached on opposite sides of the joint on the second beam; wherein the cross-shaped structure is decoupled from the third beam, wherein the third beam extends between upper and lower edges (35,36) in a height direction perpendicular to the lengthwise direction and perpendicular to the transverse direction, the cross-shaped structure crossing the third beam at a junction between the upper and lower edges, characterized in that the third beam is assembled from separate beam elements joined at the junction. - a first beam and a second beam extending in a lengthwise direction, - a third beam extending in a transverse direction between a first joint on the first beam and a second joint on the second beam, the third beam configured for carrying the load, and - a stress-inducing cross-shaped structure forming four legs joined at an intersection and extending therefrom towards four ends, where two of the four ends are attached on opposite sides of the joint on the first beam and the other two of the four ends are attached on opposite sides of the joint on the second beam;