mhurhangee/ep-ind-claims huggingface dataset:
A system for evaluating a physical location of a node in a network within an aircraft comprising: a reference node having an accelerometer installed in a reference orientation; a first node accelerometer physically coupled to a component of the first node and installed at a first location in a first node orientation relative to the reference orientation; a memory configured to store the first node orientation and an initial acceleration vector of the first node accelerometer, whereby the memory is configured to store the first node orientation, the acceleration vector of the accelerometer, and the first location in a database; and a controller configured to receive a current node acceleration vector associated with the first node accelerometer and a current reference acceleration vector associated with the reference accelerometer, determine a current node orientation by comparing the current node acceleration vector to the current reference acceleration vector, and to determine whether the location of the first node has changed by comparing the first node orientation stored in the database with the current node orientation. a reference node having an accelerometer installed in a reference orientation; a first node accelerometer physically coupled to a component of the first node and installed at a first location in a first node orientation relative to the reference orientation; a memory configured to store the first node orientation and an initial acceleration vector of the first node accelerometer, whereby the memory is configured to store the first node orientation, the acceleration vector of the accelerometer, and the first location in a database; and a controller configured to receive a current node acceleration vector associated with the first node accelerometer and a current reference acceleration vector associated with the reference accelerometer, determine a current node orientation by comparing the current node acceleration vector to the current reference acceleration vector, and to determine whether the location of the first node has changed by comparing the first node orientation stored in the database with the current node orientation.
A coupling for establishing a press connection between two pipes, consisting of a rotationally symmetrical bushing-like coupling sleeve which contains both pipe ends, said sleeve including collars (3.3, 3.4) and a central two-step collar, and two axially displaceable press sleeves which encompass the coupling sleeve, the press sleeves capable of being connected using a press tool, characterized in that the coupling comprises a one-piece cylindrical support sleeve which is located inside of and at both ends of the pipe ends to be connected and which comprises a central collar (6.1) molded on radially outwardly with opposing end faces (6.1.1), and respective molded-on areas (6.2) with longitudinal grooves (6.2.1) at the outer end on both sides of the collar (6.1), a plurality of annular recesses (6.3) separated from each other on the outer casing, the recesses being radially inwardly molded and being separated from one another by radial outwardly molded-on annular support surfaces (6.4), and an end face (6.5) with a bevel (6.6) which slopes inwardly, and that the central two-step collar of the coupling sleeve comprises a radially outwardly directed central collar (4.3) at the inner surface of the two-step collar, said outwardly directed collar having end faces (4.3.1) running on both sides, the width of the outwardly directed collar corresponding to the width of the collar (6.1) of the support sleeve.
A method of preparing a specimen in the form of a thin film by processing a specimen material by an ion beam, said method comprising the steps of: preparing a parent material from which the specimen material is to be created; placing a shielding material shaped like a belt, ribbon, or tape substantially vertically over the parent material to form a non-irradiated surface portion on the parent material; directing an ion beam (I B) at the shielding material and at the parent material from substantially vertically above the shielding material to etch portions (f) of the parent material that are located on opposite sides of said non-irradiated surface portion, and further removing the parent material by processing at least part of the etched portion using a focused ion beam to provide a thin film portion. preparing a parent material from which the specimen material is to be created; placing a shielding material shaped like a belt, ribbon, or tape substantially vertically over the parent material to form a non-irradiated surface portion on the parent material; directing an ion beam (I B) at the shielding material and at the parent material from substantially vertically above the shielding material to etch portions (f) of the parent material that are located on opposite sides of said non-irradiated surface portion, and further removing the parent material by processing at least part of the etched portion using a focused ion beam to provide a thin film portion.
A device for monitoring the heart cycle of a human heart such that coronary flow may be maintained at a desired level, said device being connected to a first sensor adapted to be positioned at a first location of said human heart and arranged for sensing cardiac wall movements at said first location, and to a second sensor adapted to be positioned at a second location of said human heart and arranged for sensing cardiac wall movements at said second location, comprising: processing circuitry (52, 54, 56, 58, 60) arranged for receiving output signals from said first sensor and said second sensors, said output signals being indicative of myocardial relaxation at said first and second locations; characterized in that said processing circuitry (52, 54, 56, 58, 60) is arranged for determining the time of myocardial relaxation at said first and second locations; and said processing circuitry (52, 54, 56, 58, 60) is arranged for providing a diastolic synchronization signal indicative of the synchrony in said time of myocardial relaxation between said first location and said second location. processing circuitry (52, 54, 56, 58, 60) arranged for receiving output signals from said first sensor and said second sensors, said output signals being indicative of myocardial relaxation at said first and second locations; characterized in that said processing circuitry (52, 54, 56, 58, 60) is arranged for determining the time of myocardial relaxation at said first and second locations; and said processing circuitry (52, 54, 56, 58, 60) is arranged for providing a diastolic synchronization signal indicative of the synchrony in said time of myocardial relaxation between said first location and said second location.
A deterioration analysis method, comprising irradiating a polymer material with high intensity X-rays, and measuring X-ray absorption while varying the energy of the X-rays by an electron yield measurement, to analyze deterioration of the polymer, wherein the high intensity X-rays have a number of 10 7 or more photons/s and are monochromatic, characterized in that a polymer material with a metal coating having a thickness of 100 Å or less formed thereon is irradiated.
A method comprising: operating a user equipment with dual connectivity comprising connectivity with a first cell group and a second cell group; receiving a configuration message configuring the user equipment with a first maximum transmission power for transmissions on the first cell group, and a second maximum transmission power for transmissions on the second cell group; determining, at a user equipment, a transmission time for a first transmission on a first serving cell of the first cell group; determining a cut-off time for power determination for the first transmission, wherein the cut-off time is based on the transmission time for the first transmission, offset by an offset time, and the offset time is based on a function of a first user equipment processing time and a second user equipment processing time; determining at least a second transmission on a second serving cell of the second cell group that overlaps with the first transmission, wherein scheduling information, transmission information, or a combination thereof of the at least second transmission is known before the cut-off time for power determination; determining a maximum transmission power for the first transmission based on the received first maximum transmission power for transmissions on the first cell group, a total transmission power allocated to the at least second transmission on the second cell group, a configured maximum transmission power for dual connectivity operation, or some combination thereof; and performing the first transmission based on the determined maximum transmission power. operating a user equipment with dual connectivity comprising connectivity with a first cell group and a second cell group; receiving a configuration message configuring the user equipment with a first maximum transmission power for transmissions on the first cell group, and a second maximum transmission power for transmissions on the second cell group; determining, at a user equipment, a transmission time for a first transmission on a first serving cell of the first cell group; determining a cut-off time for power determination for the first transmission, wherein the cut-off time is based on the transmission time for the first transmission, offset by an offset time, and the offset time is based on a function of a first user equipment processing time and a second user equipment processing time; determining at least a second transmission on a second serving cell of the second cell group that overlaps with the first transmission, wherein scheduling information, transmission information, or a combination thereof of the at least second transmission is known before the cut-off time for power determination; determining a maximum transmission power for the first transmission based on the received first maximum transmission power for transmissions on the first cell group, a total transmission power allocated to the at least second transmission on the second cell group, a configured maximum transmission power for dual connectivity operation, or some combination thereof; and performing the first transmission based on the determined maximum transmission power.
Adhesive tape, preferably self-adhesive tape, consisting of at least two layers A and B laminated directly to one another, at least one or both layers A or B being an adhesive, and the interfaces of the layers A and B that are laminated to one another being subjected to a physical treatment in the form of a corona discharge, before the layers are laminated to one another, the first physical treatment being a corona treatment in air and the second physical treatment being a corona treatment in N2.
A method for wireless communication, performed by an apparatus, comprising: receiving uplink scheduling downlink control information, DCI (605-a, 605-b), comprising an aperiodic channel state information, A-CSI, request and an indication of a downlink bandwidth part, BWP, associated with the A-CSI request; performing a CSI measurement based at least in part on the A-CSI request using the indicated downlink BWP; and transmitting a CSI report based on the CSI measurement to a base station. receiving uplink scheduling downlink control information, DCI (605-a, 605-b), comprising an aperiodic channel state information, A-CSI, request and an indication of a downlink bandwidth part, BWP, associated with the A-CSI request; performing a CSI measurement based at least in part on the A-CSI request using the indicated downlink BWP; and transmitting a CSI report based on the CSI measurement to a base station.
A sensor for being located below a return-side portion of a conveyor belt, the sensor comprising: a detector for detecting a detection object embedded in the conveyor belt; and a cover (41, 42) covering at least an upper part of the detector, wherein the cover (41, 42) has a downward surface that extends continuously downward from a top part of the cover (41, 42) while extending outward in a horizontal direction, characterized in that the cover (41, 42) includes: an outer cover; and an inner cover located inside the outer cover and covering the entire detector, and the outer cover has the downward surface that extends continuously downward from a top part of the outer cover while extending outward in the horizontal direction. a detector for detecting a detection object embedded in the conveyor belt; and a cover (41, 42) covering at least an upper part of the detector, wherein the cover (41, 42) has a downward surface that extends continuously downward from a top part of the cover (41, 42) while extending outward in a horizontal direction, characterized in that the cover (41, 42) includes: an outer cover; and an inner cover located inside the outer cover and covering the entire detector, and the outer cover has the downward surface that extends continuously downward from a top part of the outer cover while extending outward in the horizontal direction.
An influenza vaccine composition for spray-administration to nasal mucosa comprising (i) an inactivated whole influenza virion, and (ii) a gel base material comprising carboxy vinyl polymer which is treated by adding an outside shearing force by a high-speed rotation to add spray-performance, which does not comprise an adjuvant. (i) an inactivated whole influenza virion, and (ii) a gel base material comprising carboxy vinyl polymer which is treated by adding an outside shearing force by a high-speed rotation to add spray-performance,
A system for loading a warewasher, which is embodied as a commercial conveyor warewasher, in particular, wherein the system comprises a loading arrangement for automatic loading of the conveyor warewasher with washware, wherein the loading arrangement comprises a gripping system having at least one parallel gripper, wherein the at least one parallel gripper comprises at least two clamping jaws (2, 3), between which a gripping region of the parallel gripper is defined, wherein at least one of the at least two clamping jaws (2, 3) is segmented such that the at least one clamping jaw is preferably automatically and/or independently adjustable at least in regions to a surface contour of a piece of washware to be gripped by the at least one parallel gripper, characterized in that the at least one segmented clamping jaw comprises a region that is pretensioned towards the gripping region of the parallel gripper and, when gripping a piece of washware, presses counter to the pretensioning on the washware (10, 11). the at least one segmented clamping jaw comprises a region that is pretensioned towards the gripping region of the parallel gripper and, when gripping a piece of washware, presses counter to the pretensioning on the washware (10, 11).
Short-circuit release, in particular for a power circuit-breaker, having an armature and a pole, which are arranged inside a coil element, and a yoke plate and a terminal connection, which are arranged around the coil element, wherein a coil is wound on the coil element, the two ends (14, 15) of which can be welded on corresponding coil terminals from the same side, wherein the end of the coil is connected to a bimetal and the end of the coil is welded to the terminal connection, characterised in that the terminal connection surrounds the coil element including the coil with two limbs (8, 9) which are at right angles to one another.
An electric connector including: at least one connector terminal electrically connecting two printed circuit boards (P1, P2) to each other; and a connector housing including a terminal housing in which the connector terminal is housed, wherein the terminal housing includes a holder (410, 420) for holding the connector terminal therewith, said holder including a first holder and a second holder, characterized in that the holder (410, 420) is elastically deformable in accordance with a displacement of the connector terminal, each of the first holder and the second holder includes a pair of elastic arms, the first holder holding the connector terminal in such a manner that there is formed a gap between the connector terminal and at least one of the arms, the second holder holding the connector terminal in such a manner that there is formed no gap between the connector terminal and the arms, and the connector housing further includes projections (453, 454) projecting from one of the arms towards the other of the arms, the projections (453, 454) making contact at a side thereof with the connector terminal. at least one connector terminal electrically connecting two printed circuit boards (P1, P2) to each other; and a connector housing including a terminal housing in which the connector terminal is housed,
Apparatus, in particular microscope, characterized by a diffraction-limited resolution volume, having - a sample having a plurality of dye molecules that are switchable between different states, wherein at least one state is fluorescent and the switchable dye molecules in at least part of the sample have a distribution density that is greater than the inverse of the diffraction-limited resolution volume, - an objective for collecting the fluorescence, - having an optical system (ST, TLD) for imaging the fluorescence onto a spatially resolving detector, - one or more light sources for emitting a switch radiation to switch a first subset of the switchable dye molecules in the sample and for emitting an excitation radiation to excite the first subset of the switchable dye molecules, characterized in that arranged in the detection beam path is a phase mask (SPM, APM, HPM) with a phase change for producing a colour-dependent light distribution with an at least partially limited local radiation minimum by way of destructive interference, surrounded by maxima of constructive interference, wherein the phase mask (SPM, APM, HPM) is a spiral phase mask, half-space phase mask and/or a different mask with continuous or discontinuous phase delay change. - a sample having a plurality of dye molecules that are switchable between different states, wherein at least one state is fluorescent and the switchable dye molecules in at least part of the sample have a distribution density that is greater than the inverse of the diffraction-limited resolution volume, - an objective for collecting the fluorescence, - having an optical system (ST, TLD) for imaging the fluorescence onto a spatially resolving detector, - one or more light sources for emitting a switch radiation to switch a first subset of the switchable dye molecules in the sample and for emitting an excitation radiation to excite the first subset of the switchable dye molecules,
A method of characterising a three phase transformer having three input terminals connected to each other by primary windings and three output terminals connected to each other by secondary windings, the primary and secondary windings forming a winding configuration, the method using a single phase power supply and comprising the steps of: sequentially connecting the single phase power supply between all three available pairs of input terminals selected from the three input terminals of the transformer so as to energise each available pair of input terminals in turn; during energisation of each pair of terminals measuring the voltage between all three available pairs of output terminals selected from the three output terminals of the transformer; and characterised in that the method further comprises processing the measured voltages to determine the winding configuration of the transformer. sequentially connecting the single phase power supply between all three available pairs of input terminals selected from the three input terminals of the transformer so as to energise each available pair of input terminals in turn; during energisation of each pair of terminals measuring the voltage between all three available pairs of output terminals selected from the three output terminals of the transformer; and characterised in that the method further comprises processing the measured voltages to determine the winding configuration of the transformer.
Preparation comprising or consisting of - 60 - 99 wt.-% of unmodified lignin, - 1 - 20 wt.-% of minerals, - 0 - 10 wt.-% of mono and oligomeric carbohydrates, preferably 0.1 - 5 wt.-%, and - 0 - 3 wt.-% of one or more solvents, preferably 0.1 - 2 wt.-% particularly preferably - 70 - 99 wt.-% of lignin, - 1 - 10 wt.-% of minerals, - 0 - 3 wt.-% of mono and oligomeric carbohydrates, preferably 0.1 - 2 wt.-% and - 0 - 0.5 wt.-%, preferably 0.1 - 0.5 wt.-% of one or more solvents. - 60 - 99 wt.-% of unmodified lignin, - 1 - 20 wt.-% of minerals, - 0 - 10 wt.-% of mono and oligomeric carbohydrates, preferably 0.1 - 5 wt.-%, and - 0 - 3 wt.-% of one or more solvents, preferably 0.1 - 2 wt.-% - 70 - 99 wt.-% of lignin, - 1 - 10 wt.-% of minerals, - 0 - 3 wt.-% of mono and oligomeric carbohydrates, preferably 0.1 - 2 wt.-% and - 0 - 0.5 wt.-%, preferably 0.1 - 0.5 wt.-% of one or more solvents.
A mobile terminal (100, 100', 100") comprising: a terminal body; a first member (310, 410, 510, 610, 102') disposed on an inner or outer surface of the terminal body, the first member having a first inclined surface on an edge thereof; and a second member (320, 420, 520, 620, 720) located adjacent to the first member, the second member having a second inclined surface on an edge thereof facing the first inclined surface, the first and second inclined surfaces defining a gap (330, 430, 530, 630, 730) therebetween; characterized in that the mobile terminal further comprises: a filler (340, 440, 540, 640, 740) located in the gap to at least partially block the gap; and a cover layer (350, 450, 550, 650, 750) configured to cover a portion of the first member, a portion of the second member and the filler. a filler (340, 440, 540, 640, 740) located in the gap to at least partially block the gap; and a cover layer (350, 450, 550, 650, 750) configured to cover a portion of the first member, a portion of the second member and the filler.