mhurhangee/ep-ind-claims huggingface dataset:
Method of in vitro classification of a HCC tumor between 6 subgroups from a liver HCC sample of a subject suffering from HCC, comprising: a) determining an expression profile comprising or consisting of: (i) the following 16 genes combination: RAB1A, REG3A, NRAS, RAMP3, MERTK, PIR, EPHA1, LAMA3, G0S2, HN1, PAK2, AFP, CYP2C9, CDH2, HAMP, and SAE1, or (ii)the following 24 genes combination: ALDH1L1, CD24, CD74, CFHR3, CYP4F12, DNAJA3, DSCR1, EPHA1, EPHB4, FAAH, FGFR2, FLJ10159, GLT8D1, HAL, MATN2, MRPS7, PAK2, PLXNB1, RAB1A, RHOQ, SLC27A5, SLPI, SMARCE1, STRA13; b) calculating from said expression profile 6 subgroup distances; and c) classifying said HCC tumor in the subgroup for which the subgroup distance is the lowest, wherein the 6 subgroups G1, G2, G3, G4, G5, and G6 are defined by the presence (+) or absence (-) of clinical and genetic features described in following Table 2: G1 G2 G3 G4 G5 G6 Chromosome instability + + + - - - Early relapse and death + + + - - - TP53 mutation - + + - - - HBV infection + + - - - - Low copy number + - - - - - High copy number - + - - - - CTNNB1 mutation - - - - + + Satellite nodules - - - - - + a) determining an expression profile comprising or consisting of: (i) the following 16 genes combination: RAB1A, REG3A, NRAS, RAMP3, MERTK, PIR, EPHA1, LAMA3, G0S2, HN1, PAK2, AFP, CYP2C9, CDH2, HAMP, and SAE1, or (ii)the following 24 genes combination: ALDH1L1, CD24, CD74, CFHR3, CYP4F12, DNAJA3, DSCR1, EPHA1, EPHB4, FAAH, FGFR2, FLJ10159, GLT8D1, HAL, MATN2, MRPS7, PAK2, PLXNB1, RAB1A, RHOQ, SLC27A5, SLPI, SMARCE1, STRA13; (i) the following 16 genes combination: RAB1A, REG3A, NRAS, RAMP3, MERTK, PIR, EPHA1, LAMA3, G0S2, HN1, PAK2, AFP, CYP2C9, CDH2, HAMP, and SAE1, or (ii)the following 24 genes combination: ALDH1L1, CD24, CD74, CFHR3, CYP4F12, DNAJA3, DSCR1, EPHA1, EPHB4, FAAH, FGFR2, FLJ10159, GLT8D1, HAL, MATN2, MRPS7, PAK2, PLXNB1, RAB1A, RHOQ, SLC27A5, SLPI, SMARCE1, STRA13; b) calculating from said expression profile 6 subgroup distances; and c) classifying said HCC tumor in the subgroup for which the subgroup distance is the lowest,
Venting unit for a mould segment of a vulcanization mould of a pneumatic vehicle tyre, having a cylindrical and sleeve-shaped housing which is able to be pressed into a bore of the mould segment and has a central axis (a), and having a spring-loaded valve insert which is situated in the housing and is movable in relation to the latter in an axial direction and has a valve closure, said valve closure being able to close off the housing at one end thereof and, in its closed position, being seated areally with an annularly encircling contact surface on an annularly encircling contact surface on the inner wall of the housing, characterized in that, in the closed state of the venting unit, outside the contact surfaces, there is provided an annularly encircling gap which is oriented parallel to the central axis (a) and is open to the outside and, between the valve closure and the inner wall of the housing, within the contact surfaces, there are provided gaps which act in the manner of a labyrinth seal in that the valve closure and the inner wall of the housing are stepped in a step-like manner with at least two steps, wherein the outer diameter of the steps (13, 14) decreases in the direction of the housing interior, and wherein at least the gaps provided within the contact surfaces are formed between the step surfaces (14a, 14'a, 14b) of the steps at the inner wall of the housing and the step surfaces (13a, 13'a, 13b) of the steps at the valve closure.
Frame structure for a sliding door, comprising: - a metal frame which is screwed together from two side frame profiles (3, 4), a lower frame profile which is open towards the bottom, and an upper frame profile which is open to the top, wherein the lower and upper frame profiles (5, 6) are each formed by a U-shaped profile which comprises a middle leg, two side legs and a longitudinal channel that extends on the inside of the middle leg and is open at both end faces of the U-shaped profile for screwing in frame connecting screws, and - alignment elements which align the frame profiles with respect to one another in the area of their junction points, characterized in that the two side frame profiles (3, 4) are each formed by a rectangular tube with moulded C-shaped or U-shaped profile and the end faces of the lower and the upper frame profile (5, 6) abut the open profile side of the C-shaped or U-shaped profile, and the alignment elements are designed as metal brackets (30; 31), one leg (30a; 31a) of which engages without play in the tube opening of the rectangular tube and are screwed on the inner side to the rectangular tube, and the other leg (30b; 31b) of which either surrounds or engages without play in the lower or upper frame profile (5, 6). - a metal frame which is screwed together from two side frame profiles (3, 4), a lower frame profile which is open towards the bottom, and an upper frame profile which is open to the top, wherein the lower and upper frame profiles (5, 6) are each formed by a U-shaped profile which comprises a middle leg, two side legs and a longitudinal channel that extends on the inside of the middle leg and is open at both end faces of the U-shaped profile for screwing in frame connecting screws, and - alignment elements which align the frame profiles with respect to one another in the area of their junction points,
An image evaluation device (10; 10A, 10B), comprising: a reading unit that reads a sample image included in a sample printout recognized as a non-defective printout and that reads an inspection object image included in an inspection object printout obtained by printing an image corresponding to the sample image on a recording medium using a printing device based on image data representing the image; an extraction unit (20; 20A, 20B) that extracts a line defect including a linear pattern formed in a specific direction from the inspection object image represented by inspection object image data, based on a difference value between sample image data obtained by reading the sample image and the inspection object image data; and an evaluation unit (22; 22A, 22B) that evaluates a visibility of the line defect extracted by the extraction unit; wherein the evaluation unit (22; 22A, 22B) combines the line defect extracted by the extraction unit (20; 20A, 20B) with the sample image represented by the sample image data, and evaluates the visibility of the line defect based on a combined image obtained by the combination and on the sample image, using a mask effect-visual model. a reading unit that reads a sample image included in a sample printout recognized as a non-defective printout and that reads an inspection object image included in an inspection object printout obtained by printing an image corresponding to the sample image on a recording medium using a printing device based on image data representing the image; an extraction unit (20; 20A, 20B) that extracts a line defect including a linear pattern formed in a specific direction from the inspection object image represented by inspection object image data, based on a difference value between sample image data obtained by reading the sample image and the inspection object image data; and an evaluation unit (22; 22A, 22B) that evaluates a visibility of the line defect extracted by the extraction unit; wherein the evaluation unit (22; 22A, 22B) combines the line defect extracted by the extraction unit (20; 20A, 20B) with the sample image represented by the sample image data, and evaluates the visibility of the line defect based on a combined image obtained by the combination and on the sample image, using a mask effect-visual model.
Composition including a first component, comprising furfuryl alcohol and humins and a second component comprising an acidic polymerization initiator.
A piezoelectric element having an electrode, a seed layer for controlling crystal orientation of a piezoelectric layer, and the piezoelectric layer stacked in this order from a substrate side, characterised in that the seed layer is composed of two or more layers stacked together each comprising crystals of spherical particles.
A position detection device for detecting a position corresponding to a reference line, comprising: a magnet configured to move with a movable body on a movement path extending along a first direction, the magnet comprising a pair of different magnetic poles (41, 42) in a second direction perpendicular to the first direction; a pair of magnetic sensors (21, 22) that are spaced apart from the movement path by an equal distance in the second direction and disposed at an equal distance from the reference line extending in the second direction, the pair of magnetic sensors (21, 22) having identical sensor characteristics; and a detecting portion configured to detect that the magnet comprising the pair of magnetic poles (41, 42) is positioned on the reference line when outputs of the pair of magnetic sensors (21, 22) coincide, the outputs of the pair of magnetic sensors (21, 22) each exhibiting a maximum rate of change when the magnet comprising the pair of magnetic poles (41, 42) is positioned on the reference line. a magnet configured to move with a movable body on a movement path extending along a first direction, the magnet comprising a pair of different magnetic poles (41, 42) in a second direction perpendicular to the first direction; a pair of magnetic sensors (21, 22) that are spaced apart from the movement path by an equal distance in the second direction and disposed at an equal distance from the reference line extending in the second direction, the pair of magnetic sensors (21, 22) having identical sensor characteristics; and a detecting portion configured to detect that the magnet comprising the pair of magnetic poles (41, 42) is positioned on the reference line when outputs of the pair of magnetic sensors (21, 22) coincide, the outputs of the pair of magnetic sensors (21, 22) each exhibiting a maximum rate of change when the magnet comprising the pair of magnetic poles (41, 42) is positioned on the reference line.
A trocar sensor unit comprising: a base that is configured to be attached to and detached from a trocar and that has a through-hole through which an insertion section to be inserted into the trocar is inserted; a moving member that has a pressing surface forming at least a portion of an inner surface of the through-hole of the base and that is configured to be moved in a radial direction of the through-hole; and a sensor that is disposed in at least one of the moving member and a portion of the inner surface of the through-hole opposite the pressing surface and that detects the amount of movement of a surface of the insertion section in the through-hole. a base that is configured to be attached to and detached from a trocar and that has a through-hole through which an insertion section to be inserted into the trocar is inserted; a moving member that has a pressing surface forming at least a portion of an inner surface of the through-hole of the base and that is configured to be moved in a radial direction of the through-hole; and a sensor that is disposed in at least one of the moving member and a portion of the inner surface of the through-hole opposite the pressing surface and that detects the amount of movement of a surface of the insertion section in the through-hole.
A method of operating a wireless relay to serve a first User Equipment, UE, the method comprising a first eNodeB wirelessly exchanging UE signaling data with the first UE, method further comprising: in the wireless relay, processing the UE signaling data to generate S1-MME signaling data, and exchanging the S1-MME signaling data with a second UE in the wireless relay; in the wireless relay, the first eNodeB wirelessly exchanging UE user data with the first UE, processing the UE user data to generate S1-U user data, and exchanging the S1-U user data with a Local Serving Gateway, L-SGW, in the wireless relay; in the wireless relay, the L-SGW terminating the S1-U user data to generate Generic Routing Encapsulation, GRE, user data that is non-General Packet Radio Service Transfer Protocol, non-GTP, user data and exchanging the GRE user data that is non-GTP user data with the second UE in the wireless relay; and in the wireless relay, the second UE compressing/decompressing the GRE user data that is non-GTP user data and the S1-MME signaling data and wirelessly exchanging the compressed GRE user data that is non-GTP user data and the compressed S1-MME signaling data with a second eNodeB (203, 208). in the wireless relay, processing the UE signaling data to generate S1-MME signaling data, and exchanging the S1-MME signaling data with a second UE in the wireless relay; in the wireless relay, the first eNodeB wirelessly exchanging UE user data with the first UE, processing the UE user data to generate S1-U user data, and exchanging the S1-U user data with a Local Serving Gateway, L-SGW, in the wireless relay; in the wireless relay, the L-SGW terminating the S1-U user data to generate Generic Routing Encapsulation, GRE, user data that is non-General Packet Radio Service Transfer Protocol, non-GTP, user data and exchanging the GRE user data that is non-GTP user data with the second UE in the wireless relay; and in the wireless relay, the second UE compressing/decompressing the GRE user data that is non-GTP user data and the S1-MME signaling data and wirelessly exchanging the compressed GRE user data that is non-GTP user data and the compressed S1-MME signaling data with a second eNodeB (203, 208).
A substance container for an aerosol provision device for providing an inhalable medium comprising an aerosol, the substance container comprising: a body of material having a single fibre Denier value in the range of 8 to 12 that is permeable so as to allow the aerosol generated in the device to flow into and through the body of material; a substance in the body of material for modifying a property of the aerosol when the aerosol flows through the body of material; a first tube portion extending away from one end of the body of material and a second tube portion extending away from another end of the body of material. a body of material having a single fibre Denier value in the range of 8 to 12 that is permeable so as to allow the aerosol generated in the device to flow into and through the body of material; a substance in the body of material for modifying a property of the aerosol when the aerosol flows through the body of material; a first tube portion extending away from one end of the body of material and a second tube portion extending away from another end of the body of material.
A method for improving the ability of an antagonistic microorganism to prevent, suppress, treat or control disease or decay in plants, including their fruits and/ or harvestable parts, the method comprising contacting a plant with a formulation comprising an antagonistic microorganism and a booster composition, characterized in that said booster composition comprises: a) 2 to 4 parts Kaolin clay; b) 1 to 1.5 parts yeast; c) 1 to 1.5 parts Yucca plant extract; and d) 1 to 1.5 parts calcium-source material. a) 2 to 4 parts Kaolin clay; b) 1 to 1.5 parts yeast; c) 1 to 1.5 parts Yucca plant extract; and d) 1 to 1.5 parts calcium-source material.
A method of making a natural sweetening composition comprising the steps of: steam stripping and at least one step of filtering a crude plant extract of at least one plant based natural high intensity sweetening compound, wherein: the steam stripping step employs a steam stripping column; and the at least one step of filtering is employed prior to, after or prior to and after the steam stripping step, any filtering step employed after the steam stripping step being employed with respect to the extract mixture from which volatile components have been transferred to the vapor phase by the steam stripping step; and the filtering step is performed using a semipermeable membrane. steam stripping and at least one step of filtering a crude plant extract of at least one plant based natural high intensity sweetening compound, wherein: the steam stripping step employs a steam stripping column; and the at least one step of filtering is employed prior to, after or prior to and after the steam stripping step, any filtering step employed after the steam stripping step being employed with respect to the extract mixture from which volatile components have been transferred to the vapor phase by the steam stripping step; and the steam stripping step employs a steam stripping column; and the at least one step of filtering is employed prior to, after or prior to and after the steam stripping step, any filtering step employed after the steam stripping step being employed with respect to the extract mixture from which volatile components have been transferred to the vapor phase by the steam stripping step; and the filtering step is performed using a semipermeable membrane.
A continuous cardiac monitor, for capturing and recording raw data for later processing comprising: a housing; a surface on the housing adapted to be affixed to a mammal; a long term adhesive on the surface of the housing that is adapted to affix the device to the mammal; at least two electrodes within the housing, positioned to detect cardiac information of the mammal while the surface is sealably engaged to the mammal, an electronic memory within the housing; electrical connections within the housing connecting the electronic memory to the electrodes; an action sequencer circuit within the housing and electrically connected to the at least two electrodes, characterized in that the action sequencer circuit comprises at least one state machine with simple hardwired logic configured for recording continuously all data during a monitoring period and J having no central processing unit; wherein the electronic memory is configured to store at least 24 hours of continuous cardiac unprocessed information, recorded during the monitoring period. a housing; a surface on the housing adapted to be affixed to a mammal; a long term adhesive on the surface of the housing that is adapted to affix the device to the mammal; at least two electrodes within the housing, positioned to detect cardiac information of the mammal while the surface is sealably engaged to the mammal, an electronic memory within the housing; electrical connections within the housing connecting the electronic memory to the electrodes; an action sequencer circuit within the housing and electrically connected to the at least two electrodes, the action sequencer circuit comprises at least one state machine with simple hardwired logic configured for recording continuously all data during a monitoring period and J having no central processing unit; wherein the electronic memory is configured to store at least 24 hours of continuous cardiac unprocessed information, recorded during the monitoring period.
An access point configured for communication with a plurality of high efficiency WLAN, HEW, devices using a primary 20MHz channel and one or more secondary 20MHz channels, the access point comprising: processing circuitry; and memory; the processing circuitry is configured to: obtain a transmission opportunity, TXOP, on the secondary channels; transmit a HEW control and schedule transmission, the HEW control and schedule transmission including a schedule indicating a plurality of resource units within each of the 20 MHz channels, the resource units configurable to have bandwidths less than 20 MHz to allow multiple resource units within each 20 MHz channel; and communicate with at least some of the HEW devices in accordance with a non-contention based multiple-access-communication technique on one or more of the secondary channels when the primary channel is busy. processing circuitry; and memory; obtain a transmission opportunity, TXOP, on the secondary channels; transmit a HEW control and schedule transmission, the HEW control and schedule transmission including a schedule indicating a plurality of resource units within each of the 20 MHz channels, the resource units configurable to have bandwidths less than 20 MHz to allow multiple resource units within each 20 MHz channel; and communicate with at least some of the HEW devices in accordance with a non-contention based multiple-access-communication technique on one or more of the secondary channels when the primary channel is busy.
An apparatus for depositing metal onto a workpiece during additive manufacturing, the apparatus comprising: a crucible having a top portion configured to receive a continuous supply of wire material, and a bottom portion including an orifice; a droplet generator configured to convert the wire material into a stream of metal droplets emitted from the orifice in the presence of an electromagnetic field; a droplet sensor configured to measure the charge and velocity of each droplet as each droplet passes through the droplet sensor; a droplet scanner configured to selectively deflect droplets in the X and Y directions to thereby direct each droplet to a predetermined X, Y location on the workpiece; and a processor configured to dynamically modulate the scanner for each droplet, and thereby control the X, Y direction of each droplet, based on the measured charge and measured velocity of that droplet, characterized in that the droplet sensor comprises a stack of differential sensing electrodes, and is configured to transmit a unique control signal to the processor for each droplet representing that droplet's velocity, charge, and trajectory values; the droplet scanner comprises a scan voltage generator configured to apply a control voltage to a low capacitance scan electrode; and the processor is configured to adjust the control voltage applied to the low capacitance scan electrode for each droplet based on that droplet's control signal. a crucible having a top portion configured to receive a continuous supply of wire material, and a bottom portion including an orifice; a droplet generator configured to convert the wire material into a stream of metal droplets emitted from the orifice in the presence of an electromagnetic field; a droplet sensor configured to measure the charge and velocity of each droplet as each droplet passes through the droplet sensor; a droplet scanner configured to selectively deflect droplets in the X and Y directions to thereby direct each droplet to a predetermined X, Y location on the workpiece; and a processor configured to dynamically modulate the scanner for each droplet, and thereby control the X, Y direction of each droplet, based on the measured charge and measured velocity of that droplet, characterized in that the droplet sensor comprises a stack of differential sensing electrodes, and is configured to transmit a unique control signal to the processor for each droplet representing that droplet's velocity, charge, and trajectory values; the droplet scanner comprises a scan voltage generator configured to apply a control voltage to a low capacitance scan electrode; and the processor is configured to adjust the control voltage applied to the low capacitance scan electrode for each droplet based on that droplet's control signal.
A device for preventing a bolt from sliding upon a non-desired attempt to open a latch, said latch comprises a case, a strike plate and said bolt having a head adapted to engage into the strike plate in a closed position of the latch and a heel opposed to the head, the device including a housing having a reverse "U" shape, and thus having a horizontal upper part and two vertical lateral parts (3, 3'; 6), a rear vertical part of which consisting in a solid arm adapted to be arranged behind the heel of the bolt and preventing the bolt from sliding in the latch opening direction, and a front vertical part (3, 3') of which consisting in two arms (3, 3') separated by a gap, characterised in that both arms are adapted to be arranged between the case and the strike plate of the latch in the closed position of the latter, so as to ensure that the housing is held, thereby allowing the bolt to pass through the gap located between both arms (3, 3'), the horizontal upper part resting on the case.