mhurhangee/ep-ind-claims huggingface dataset:
A label printer comprising: a housing in which a rolled printing medium is mounted so that one edge of the printing medium is aligned with one side of the housing, the printing medium having a printing surface and a back surface on which a medium information mark previously is provided, and the printing medium being wound so that the printing surface is inside and the medium information mark appears outside; and a top cover placed over the housing, the top cover being entirely or partially made of a transparent material so that the medium information mark is visible therethrough. a housing in which a rolled printing medium is mounted so that one edge of the printing medium is aligned with one side of the housing, the printing medium having a printing surface and a back surface on which a medium information mark previously is provided, and the printing medium being wound so that the printing surface is inside and the medium information mark appears outside; and a top cover placed over the housing, the top cover being entirely or partially made of a transparent material so that the medium information mark is visible therethrough.
Large manipulator, in particular for concrete pumps, comprising an articulated arm which comprises a rotary support rotatable about a vertical axis and at least two segments pivotable about horizontal axes by means of joints (B-E), wherein the rotary support is displaceable about the vertical axis via an actuator and the segments are pivotable about the horizontal axes via actuators, a control for driving the actuators, wherein the control comprises a vibration damping for damping horizontal and/or vertical vibrations of the articulated arm, and at least one rotation rate sensor whose measurement signals are integrated into the vibration damping, characterised in that the large manipulator comprises sensors, associated with the rotary joints, for indirectly or directly measuring the respective angle of rotation of the joints of the articulated arm, wherein the measurement signals of the sensors are integrated into the control of the large manipulator, and that the vibration damper determines a vibration state of the entire articulated arm on the basis of the measured values of the at least one rotation rate sensor from the vibrations of the individual segments, wherein the vibration damping is preferably carried out without the use of geodetic sensors and/or inertial measurement units and/or deformation sensors arranged on the segments. an articulated arm which comprises a rotary support rotatable about a vertical axis and at least two segments pivotable about horizontal axes by means of joints (B-E), wherein the rotary support is displaceable about the vertical axis via an actuator and the segments are pivotable about the horizontal axes via actuators, a control for driving the actuators, wherein the control comprises a vibration damping for damping horizontal and/or vertical vibrations of the articulated arm, and at least one rotation rate sensor whose measurement signals are integrated into the vibration damping, characterised in that the large manipulator comprises sensors, associated with the rotary joints, for indirectly or directly measuring the respective angle of rotation of the joints of the articulated arm, wherein the measurement signals of the sensors are integrated into the control of the large manipulator, and that the vibration damper determines a vibration state of the entire articulated arm on the basis of the measured values of the at least one rotation rate sensor from the vibrations of the individual segments, wherein the vibration damping is preferably carried out without the use of geodetic sensors and/or inertial measurement units and/or deformation sensors arranged on the segments.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: determining that a time offset between a first monitoring occasion of a first downlink control channel and a second monitoring occasion of a second downlink control channel, which is different from the first downlink control channel, is smaller than a threshold value, wherein the first downlink control channel is associated with a first beam and the second downlink control channel is associated with a second beam which is different from the first beam; and performing a monitoring of the first downlink control channel associated with the first beam only, without monitoring of the second downlink control channel associated with the second beam, based on the determination. determining that a time offset between a first monitoring occasion of a first downlink control channel and a second monitoring occasion of a second downlink control channel, which is different from the first downlink control channel, is smaller than a threshold value, wherein the first downlink control channel is associated with a first beam and the second downlink control channel is associated with a second beam which is different from the first beam; and performing a monitoring of the first downlink control channel associated with the first beam only, without monitoring of the second downlink control channel associated with the second beam, based on the determination.
A method for the quantitative three-dimensional imaging of the metabolic status of a lesion, such method comprising: a) acquiring fluorescence lifetime imaging microscopy (FLIM) data of an anaerobic glycolysis marker of the lesion; b) subjecting the data relative to the anaerobic glycolysis marker acquired in step a) to a phasor analysis, thereby obtaining a phasor diagram; c) using the phasor diagram obtained in step b) to computationally generate a quantitative 3D image of the anaerobic glycolysis status of the lesion, wherein the anaerobic glycolysis marker is selected from the list of the NADH/NAD+ ratio, NAD H/NAD+ ratio, the NADH/FAD ratio, the NAD H/FAD ratio and the FADH/FAD ratio and wherein step c) when applied to the data relative to anaerobic glycolysis marker consists in dividing the data in a number of regions corresponding to different intervals of NADH, NAD H or FADH lifetimes and assigning each pixel belonging to the same region a single intensity value correlated to such lifetime interval. a) acquiring fluorescence lifetime imaging microscopy (FLIM) data of an anaerobic glycolysis marker of the lesion; b) subjecting the data relative to the anaerobic glycolysis marker acquired in step a) to a phasor analysis, thereby obtaining a phasor diagram; c) using the phasor diagram obtained in step b) to computationally generate a quantitative 3D image of the anaerobic glycolysis status of the lesion,
A method for producing a fermented dairy base comprising culturing a composition comprising milk, which comprises a milk solids non fat content of at least 23%, in the presence of a starter culture comprising a strain of Streptococcus thermophilus, a strain of Lactobacillus delbrueckii subsp. bulgaricus and a strain of Lactobacillus helveticus, wherein prior to culturing, the composition comprising milk is inoculated with the starter culture to provide an initial viable cell count of Lactobacillus helveticus of at least 5.10 4 cfu per ml of composition comprising milk, of Streptococus thermophilus of at least 1.10 4 cfu per ml of composition comprising milk and of Lactobacillus delbrueckii subsp. bulgaricus of at least 1.10 3 cfu per ml of composition comprising milk and wherein the starter culture is provided as a frozen starter culture and the frozen starter culture comprises a. bacteria of Streptococcus thermophilus at a total viable cell count density of at least 1.10 8 cfu/g of frozen starter culture, preferably of at least 1.10 9 cfu/g; b. bacteria of Lactobacillus delbrueckii subsp. bulgaricus at a total viable cell count density of at least 1.10 7 cfu/g of frozen starter culture, preferably at least 1.10 8 cfu/g; and c. bacteria of Lactobacillus helveticus at a total viable cell count density of least 1.10 8 cfu/g of frozen starter culture, preferably of at least 1.10 9 cfu/g. a. bacteria of Streptococcus thermophilus at a total viable cell count density of at least 1.10 8 cfu/g of frozen starter culture, preferably of at least 1.10 9 cfu/g; b. bacteria of Lactobacillus delbrueckii subsp. bulgaricus at a total viable cell count density of at least 1.10 7 cfu/g of frozen starter culture, preferably at least 1.10 8 cfu/g; and c. bacteria of Lactobacillus helveticus at a total viable cell count density of least 1.10 8 cfu/g of frozen starter culture, preferably of at least 1.10 9 cfu/g.
Process for analysis for the presence of disease-related aggregated conformation prion protein in a biopsied mammalian sample, comprising the steps of a) adding to the sample at least one native conformation prion protein, b) subjecting the mixture comprising the sample and at least one native conformation prion protein obtained in step a) to at least one shear-force intensity that is controlled to have a uniform intensity having an intensity range of maximally 20% of one shear-force value for a pre-determined number of cycles of a pre-determined time of shear-force acting and a pre-determined resting phase, c) following step b), determining the content of aggregated conformation prion protein for each of the shear-force intensities, characterized by d) comparing the content of aggregated conformation prion protein determined in step c) to pre-determined data on the content of aggregated conformation prion protein, which content was determined for native conformation prion protein subjected to the same shear-force intensity as in step b), wherein the pre-determined data on the content of aggregated conformation prion protein was determined in native conformation prion protein in admixture with a reference sample and these data are provided in a databank which in association with these data contains the neurodegenerative disease diagnosis for the patient from which the reference sample originates. a) adding to the sample at least one native conformation prion protein, b) subjecting the mixture comprising the sample and at least one native conformation prion protein obtained in step a) to at least one shear-force intensity that is controlled to have a uniform intensity having an intensity range of maximally 20% of one shear-force value for a pre-determined number of cycles of a pre-determined time of shear-force acting and a pre-determined resting phase, c) following step b), determining the content of aggregated conformation prion protein for each of the shear-force intensities, characterized by d) comparing the content of aggregated conformation prion protein determined in step c) to pre-determined data on the content of aggregated conformation prion protein, which content was determined for native conformation prion protein subjected to the same shear-force intensity as in step b), wherein the pre-determined data on the content of aggregated conformation prion protein was determined in native conformation prion protein in admixture with a reference sample and these data are provided in a databank which in association with these data contains the neurodegenerative disease diagnosis for the patient from which the reference sample originates.
A light deflection device comprising: - a planar, transparent light guide (4, 4'), and - a transparent cover layer (6, 6') applied in a planar manner to the light guide at least in regions, wherein a microstructure (20, 20') for coupling out light coupled into the light guide (4, 4') is formed between the light guide (4, 4') and the cover layer (6, 6'), wherein the microstructure (20, 20') either is formed on the surface of the cover layer facing the light guide or is formed by the surface of the light guide, characterised in that the microstructure (20, 20') has a plurality of structural elements (20a, 20a') which are formed as circular cylindrical protrusions (20a, 20a'), wherein the angle enclosed by the height (h) and the cross-sectional diagonal (c) of the structural elements (20a, 20a') is smaller than or equal to the limiting angle of total reflection in the light guide and/or the cover layer (6, 6'), wherein the structural elements (20a, 20a') are formed in such a way that light coupled into the light guide (4, 4') is coupled out via the cylinder jacket surfaces of the structural elements (20a, 20a'). - a planar, transparent light guide (4, 4'), and - a transparent cover layer (6, 6') applied in a planar manner to the light guide at least in regions, wherein a microstructure (20, 20') for coupling out light coupled into the light guide (4, 4') is formed between the light guide (4, 4') and the cover layer (6, 6'), wherein the microstructure (20, 20') either is formed on the surface of the cover layer facing the light guide or is formed by the surface of the light guide, characterised in that the microstructure (20, 20') has a plurality of structural elements (20a, 20a') which are formed as circular cylindrical protrusions (20a, 20a'), wherein the angle enclosed by the height (h) and the cross-sectional diagonal (c) of the structural elements (20a, 20a') is smaller than or equal to the limiting angle of total reflection in the light guide and/or the cover layer (6, 6'), wherein the structural elements (20a, 20a') are formed in such a way that light coupled into the light guide (4, 4') is coupled out via the cylinder jacket surfaces of the structural elements (20a, 20a').
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: transmitting a buffer status reporting of which a buffer size is set to zero with uplink data; receiving uplink grant of which a resource size is set to zero after the uplink data is transmitted; considering that the uplink data transmission is performed successfully; setting a value of Hybrid-ARQ, HARQ, feedback of a HARQ process to 'ACK'; and performing the HARQ process of the uplink data as successful uplink transmission, wherein the UE does not generate a MAC PDU for the uplink grant even if there is data available for transmission. transmitting a buffer status reporting of which a buffer size is set to zero with uplink data; receiving uplink grant of which a resource size is set to zero after the uplink data is transmitted; considering that the uplink data transmission is performed successfully; setting a value of Hybrid-ARQ, HARQ, feedback of a HARQ process to 'ACK'; and performing the HARQ process of the uplink data as successful uplink transmission, wherein the UE does not generate a MAC PDU for the uplink grant even if there is data available for transmission.
Ultrasonic sensor device for a vehicle, including an ultrasonic sensor and an oscillation limiting ring limiting the ultrasonic sensor in its oscillation transmission, characterized in that the oscillation limiting ring has a shaping of a front inner contour different from its outer contour and the extension of the inner contour (14, 15) varies over the thickness of the oscillation limiting ring, wherein the inner contour has a first rear inner contour adapted to the outer geometry of the ultrasonic sensor on a rear side facing the ultrasonic sensor, which transitions into the second front inner contour formed on a front side of the oscillation limiting ring viewed over the thickness of the oscillation limiting ring, wherein the second inner contour is different from the outer contour.
Medical instrument having an elongate shaft and a tool arranged at a distal end portion of the shaft, said tool comprising two tool elements which, in particular, interact with one another for holding an object, at least one of said tool elements being movable by means of a longitudinally displaceable first transmission element, characterized in that a distal end portion of the first transmission element has a face (31, 31') that is inclined to a displacement direction and the distal end portion of the shaft or an element connected to the latter in a non-displaceable manner has a counterface (32, 32') that is inclined to the displacement direction, said counterface, together with the inclined face (31, 31'), forming an interstice that depends on a displacement of the distal end portion of the first transmission element, and in that at least one locking element (25, 25') is present, which is movable directed into the interstice for blocking the displacement of the first transmission element and which is movable directed out of said interstice for releasing the block.
An intravascular device delivery system for delivery of an intravascular device (110, 126), the system comprising: an intravascular device (110, 126); an elongated member having a distal end and a proximal end with a longitudinal axis extending therebetween, the elongated member including, a coil, a distal end cap longitudinally fixed to the coil, a delivery catheter positioned longitudinally overlapping at least a portion of the coil, and a delivery disc longitudinally fixed to the delivery catheter; and a disc handle configured to move the distal end cap and delivery disc, the disc handle including, a main body configured to move the distal end cap, and a movable body configured to move the delivery disc longitudinally relative to the distal end cap, wherein the main body is connected to the distal end cap by the coil, and wherein the coil is configured to transmit compression force from the disc handle through the distal end cap to the intravascular device (110, 126) to push the intravascular device (110, 126) out of the elongated member. an intravascular device (110, 126); an elongated member having a distal end and a proximal end with a longitudinal axis extending therebetween, the elongated member including, a coil, a distal end cap longitudinally fixed to the coil, a delivery catheter positioned longitudinally overlapping at least a portion of the coil, and a delivery disc longitudinally fixed to the delivery catheter; and a coil, a distal end cap longitudinally fixed to the coil, a delivery catheter positioned longitudinally overlapping at least a portion of the coil, and a delivery disc longitudinally fixed to the delivery catheter; and a disc handle configured to move the distal end cap and delivery disc, the disc handle including, a main body configured to move the distal end cap, and a movable body configured to move the delivery disc longitudinally relative to the distal end cap, a main body configured to move the distal end cap, and a movable body configured to move the delivery disc longitudinally relative to the distal end cap, wherein the main body is connected to the distal end cap by the coil, and wherein the coil is configured to transmit compression force from the disc handle through the distal end cap to the intravascular device (110, 126) to push the intravascular device (110, 126) out of the elongated member.
A robotic work tool system, comprising a charging station, a boundary wire and a signal generator for generating and transmitting a signal through said boundary wire for demarcating a work area, said robotic work tool system further comprising a robotic work tool configured to detect a magnetic field strength (M1, M2) in the work area, wherein said robotic work tool system is characterized in that said robotic work tool system being configured to adapt, that is increase or decrease, a current level of the signal being transmitted through the boundary wire based on the detected magnetic field strength (M1, M2).
Printed circuit board plug connector, comprising a shield connection element, which comprises at least one planar deformation section, a plug connector installation housing, which consists at least in part of metal, and an insulating body, which comprises a passage slot into which the shield connection element is inserted, wherein the insulating body is arranged with its plug-in region in the plug connector installation housing and, in order for the plug connector installation housing to electrically contact the earth connection of a printed circuit board, the shield connection element electrically contacts with its contact sections, which protrude on both sides radially out of the insulating body, the plug connector installation housing from inside at two sites that lie opposite one another, wherein the shield connection element is a stamped part, characterized in that the contact sections of the shield connection element contact the plug connector installation housing with their stamped contour.
A hand-writing pen, which is used in coordination with a mobile terminal, the hand-writing pen comprises a penholder, characterized in that the penholder comprises a first rod and a second rod; the first rod and the second rod are connected by a rotation structure; and an angle sensor module is set in the rotation structure, and the angle sensor module is configured to acquire an angle signal of rotation of the first rod or the second rod and transmit the angle signal to the mobile terminal; a wireless communication module is set on the penholder, wherein the wireless communication module is connected to the angle sensor module and is configured to transmit the angle signal acquired by the angle sensor module to the mobile terminal in a wireless communication manner.
A device for gripping, retaining and guiding containers, in particular bottle-like containers, having: a gripping arm pair, having at least two gripping arms (2, 2'); a fastening plate, having at least two bores (4, 4') which each have a bearing element (5, 5') for pivotably fastening the respective gripping arm (2, 2'), the first and second bearing elements (5, 5') each comprising, at the end remote from the associated gripping arm (2, 2'), a horizontal actuating element (6, 6') having a lever (7, 7'), the lever of the actuating element of the first bearing element being in force-transmitting contact with the lever of the actuating element of the second bearing element in such a way that, by means of an external force acting on an actuating roller mounted on the actuating element of the second bearing element, a direct force transmission to the first bearing element is made possible, as a result of which the gripping arm pair is brought from a closed position into an open position, and characterised in that the levers (7, 7') each have a cylindrical configuration. a gripping arm pair, having at least two gripping arms (2, 2'); a fastening plate, having at least two bores (4, 4') which each have a bearing element (5, 5') for pivotably fastening the respective gripping arm (2, 2'), the first and second bearing elements (5, 5') each comprising, at the end remote from the associated gripping arm (2, 2'), a horizontal actuating element (6, 6') having a lever (7, 7'), the lever of the actuating element of the first bearing element being in force-transmitting contact with the lever of the actuating element of the second bearing element in such a way that, by means of an external force acting on an actuating roller mounted on the actuating element of the second bearing element, a direct force transmission to the first bearing element is made possible, as a result of which the gripping arm pair is brought from a closed position into an open position, and characterised in that the levers (7, 7') each have a cylindrical configuration.