mhurhangee/ep-ind-claims huggingface dataset:
A sheet of labels comprising: a backing layer forming a reverse side of the sheet of labels; and an image receiving layer attached to the backing layer, the image receiving layer comprising a plurality of removable labels (538, 542) and forming a front side of the sheet of labels; the backing layer comprising at least one identifier associated with each of the plurality of labels (538, 542), characterised in that one or more of the at least one identifier being visible from the front side of the sheet of labels through the image receiving layer at a location associated with a label that has not been removed from the plurality of labels (538, 542), wherein one or more of the at least one identifier is visible from the front side of the sheet of labels through at least the backing layer; and wherein the one or more of the at least one identifier is visible by at least one of the following: the identifiers are printed with a size and/or thickness and/or density such that the one or more of the at least one identifier is visible; the thickness of the image receiving layer is selected to ensure that the one or more of the at least one identifier is visible. a backing layer forming a reverse side of the sheet of labels; and an image receiving layer attached to the backing layer, the image receiving layer comprising a plurality of removable labels (538, 542) and forming a front side of the sheet of labels; the backing layer comprising at least one identifier associated with each of the plurality of labels (538, 542), characterised in that one or more of the at least one identifier being visible from the front side of the sheet of labels through the image receiving layer at a location associated with a label that has not been removed from the plurality of labels (538, 542), wherein one or more of the at least one identifier is visible from the front side of the sheet of labels through at least the backing layer; and wherein the one or more of the at least one identifier is visible by at least one of the following: the identifiers are printed with a size and/or thickness and/or density such that the one or more of the at least one identifier is visible; the thickness of the image receiving layer is selected to ensure that the one or more of the at least one identifier is visible.
Compounds of the formula I, in the form of mixtures comprising predominantly one diastereomer or in the form of pure diastereomers, Z 1 -Q-P*R 0 R 1 in which Z 1 is selected from the group of -P(C 1 -C 6 -alkyl) 2, -P(C 5 -C 8 -cycloalkyl) 2, -P(C 7 -C 8 -bicycloalkyl) 2, -P(o-furyl) 2, -P(C 6 H 5) 2, -P[2-(C 1 -C 6 -alkyl)C 6 H 4] 2, -P[3-(C 1 -C 6 -alkyl)C 6 H 4] 2, -P[4-(C 1 -C 6 -alkyl)C 6 H 4] 2, -P[2-(C 1 -C 6 -alkoxy)C 6 H 4] 2, -P[3-(C 1 -C 6 -alkoxy)C 6 H 4] 2, -P[4-(C 1 -C 6 -alkoxy)C 6 H 4] 2, -P[2-(trifluoromethyl)C 6 H 4] 2, -P[3-(trifluoromethyl)C 6 H 4] 2, -P[4-(trifluoromethyl)C 6 H 4] 2, -P[3,5-bis(trifluoromethyl)-C 6 H 3] 2, -P[3,5-bis(C 1 -C 6 -alkyl) 2 C 6 H 3] 2, -P[3,5-bis(C 1 -C 6 -alkoxy) 2 C 6 H 3] 2, and -P[3,5-bis(C 1 -C 6 -alkyl) 2 -4-(C 1 -C 6 -alkoxy)C 6 H 2] 2, Q is (f) bivalent arene or heteroarene, (g) 1,1'-biaryl-2,2'-diyl of the formula (h) 1,1'-ferrocenylene, or (j) linear C 1 -C 4 -alkylene, where these radicals are unsubstituted or substituted by F, CF 3, Cl, C 1 -C 4 -alkyl, C 1 -C 4 -alkoxy, C 1 -C 4 -alkylthio, (C 1 -C 4 -alkyl) 2 N or (C 1 -C 4 -alkyl) 3 Si; P* is a chiral phosphorus atom; R 0 is hydroxyl, and R 1 derives from the terpene alcohols, by removal of the OH group, menthol, neomenthol, norborneol, borneol, campheniol, isopinocampheol and carveol. Z 1 is selected from the group of -P(C 1 -C 6 -alkyl) 2, -P(C 5 -C 8 -cycloalkyl) 2, -P(C 7 -C 8 -bicycloalkyl) 2, -P(o-furyl) 2, -P(C 6 H 5) 2, -P[2-(C 1 -C 6 -alkyl)C 6 H 4] 2, -P[3-(C 1 -C 6 -alkyl)C 6 H 4] 2, -P[4-(C 1 -C 6 -alkyl)C 6 H 4] 2, -P[2-(C 1 -C 6 -alkoxy)C 6 H 4] 2, -P[3-(C 1 -C 6 -alkoxy)C 6 H 4] 2, -P[4-(C 1 -C 6 -alkoxy)C 6 H 4] 2, -P[2-(trifluoromethyl)C 6 H 4] 2, -P[3-(trifluoromethyl)C 6 H 4] 2, -P[4-(trifluoromethyl)C 6 H 4] 2, -P[3,5-bis(trifluoromethyl)-C 6 H 3] 2, -P[3,5-bis(C 1 -C 6 -alkyl) 2 C 6 H 3] 2, -P[3,5-bis(C 1 -C 6 -alkoxy) 2 C 6 H 3] 2, and -P[3,5-bis(C 1 -C 6 -alkyl) 2 -4-(C 1 -C 6 -alkoxy)C 6 H 2] 2, Q is (f) bivalent arene or heteroarene, (g) 1,1'-biaryl-2,2'-diyl of the formula (h) 1,1'-ferrocenylene, or (j) linear C 1 -C 4 -alkylene, (f) bivalent arene or heteroarene, (g) 1,1'-biaryl-2,2'-diyl of the formula (h) 1,1'-ferrocenylene, or (j) linear C 1 -C 4 -alkylene, where these radicals are unsubstituted or substituted by F, CF 3, Cl, C 1 -C 4 -alkyl, C 1 -C 4 -alkoxy, C 1 -C 4 -alkylthio, (C 1 -C 4 -alkyl) 2 N or (C 1 -C 4 -alkyl) 3 Si; P* is a chiral phosphorus atom; R 0 is hydroxyl, and R 1 derives from the terpene alcohols, by removal of the OH group, menthol, neomenthol, norborneol, borneol, campheniol, isopinocampheol and carveol.
An aircraft with a fuselage that comprises a framework structure having at least one hollow frame that is integrally formed in one composite piece and comprises fiber reinforced polymers, wherein said one composite piece hollow frame defines an integrated ventilation air duct that is adapted for guiding ventilation air (14, 15, 16, 17) into said aircraft; characterized in that the hollow frame further comprises at least one condense water drainage that is adapted for removing condense water occurring in said integrated ventilation air duct in operation, and wherein said at least one condense water drainage comprises at least one condense water outlet that is provided with at least one associated outlet cover inside said integrated ventilation air duct, said at least one associated outlet cover being adapted to allow said condense water to flow into said condense water outlet in a direction that is opposed to a ventilation air stream generated by said ventilation air (14, 15, 16, 17) and to prevent said ventilation air stream from leaking out of said integrated ventilation duct at said at least one condense water outlet.
A method of operating an ultrasound diagnostic apparatus (100,200), the method comprising: setting a region of interest intended to be enlarged in an ultrasound image of an object; acquiring ultrasound data corresponding to a candidate region including the ROI using a probe; generating a candidate image corresponding to the candidate region, based on the acquired ultrasound data; detecting shaking of the probe by means of a shaking detecting unit (130, 240); and displaying by means of a display unit (160, 250) a portion of the candidate image corresponding to the ROI, based on the detected shaking of the probe, wherein the candidate image is obtained by enlarging an ultrasound image corresponding to the candidate region, and the area of the candidate region is proportional to a degree of shaking of the probe. setting a region of interest intended to be enlarged in an ultrasound image of an object; acquiring ultrasound data corresponding to a candidate region including the ROI using a probe; generating a candidate image corresponding to the candidate region, based on the acquired ultrasound data; detecting shaking of the probe by means of a shaking detecting unit (130, 240); and displaying by means of a display unit (160, 250) a portion of the candidate image corresponding to the ROI, based on the detected shaking of the probe, wherein the candidate image is obtained by enlarging an ultrasound image corresponding to the candidate region, and the area of the candidate region is proportional to a degree of shaking of the probe.
An engine control method for a hybrid vehicle, wherein, an engine, an automatic clutch, a motor, and an input shaft of a dual clutch transmission, DCT, of the hybrid vehicle are connected in series in this sequence, and a total torque outputted together by the engine and the motor is applied to a wheel end through an output shaft of the DCT, and the engine control method for the hybrid vehicle comprises: performing control of engine travelling start, comprising: from a first start time when a first start instruction for the engine is activated by a hybrid control unit, HCU, controlling an odd-numbered gear clutch or an even-numbered gear clutch of the DCT to switch from a closed state to a sliding state, and from the first start time to a second start time when a second start instruction for the engine is activated by an engine control unit, ECU, controlling a motor torque to increase, so that the total torque remains unchanged; remaining the motor torque at the second start time unchanged from the second start time to a third start time when an oil pump of the engine starts to work; and controlling the motor torque to change from the third start time, so that a rotating speed of the engine changes synchronously with a rotating speed of the motor, and the total torque remains unchanged till the engine travelling start is completed. from a first start time when a first start instruction for the engine is activated by a hybrid control unit, HCU, controlling an odd-numbered gear clutch or an even-numbered gear clutch of the DCT to switch from a closed state to a sliding state, and from the first start time to a second start time when a second start instruction for the engine is activated by an engine control unit, ECU, controlling a motor torque to increase, so that the total torque remains unchanged; remaining the motor torque at the second start time unchanged from the second start time to a third start time when an oil pump of the engine starts to work; and controlling the motor torque to change from the third start time, so that a rotating speed of the engine changes synchronously with a rotating speed of the motor, and the total torque remains unchanged till the engine travelling start is completed.
A shower assembly comprising: an inlet port for receiving water from a water source; a reservoir for receiving water from the inlet port; and a plurality of drop outlet ports; wherein each of the drop outlet ports is configured such that water passes from the reservoir through the plurality of drop outlet ports, forms a drop at each drop outlet port, and falls from each drop outlet port only as discrete drops of water; characterised in that the reservoir is not pressurized by a line pressure of the water source; and wherein the plurality of drop outlet ports comprise drop outlet ports (108a, 108b, 108c) having at least two different outlet geometries and a common bore size to form the discrete drops in at least two different sizes (20a, 20b, 20c). an inlet port for receiving water from a water source; a reservoir for receiving water from the inlet port; and a plurality of drop outlet ports; wherein each of the drop outlet ports is configured such that water passes from the reservoir through the plurality of drop outlet ports, forms a drop at each drop outlet port, and falls from each drop outlet port only as discrete drops of water; characterised in that the reservoir is not pressurized by a line pressure of the water source; and wherein the plurality of drop outlet ports comprise drop outlet ports (108a, 108b, 108c) having at least two different outlet geometries and a common bore size to form the discrete drops in at least two different sizes (20a, 20b, 20c).
A reagent pipette tip, comprising: a tube having a first end, a second end opposite the first end, and a sidewall extending between the first end and the second end defining an interior cavity, a portion of the tube being configured to be connected to a pipette such that when a sample is drawn into the pipette, the sample is drawn through the tube in a liquid path; and at least one reagent pad positioned within the interior cavity of the tube and in the liquid path whereby a sample contacts at least a portion of the at least one reagent pad when drawn into the interior cavity, wherein the reagent pipette tip further comprises a pressure mechanism operably connected to the first end of the tube; and characterized in that a tip portion is removably connected to the tube proximate to the second end of the tube. a tube having a first end, a second end opposite the first end, and a sidewall extending between the first end and the second end defining an interior cavity, a portion of the tube being configured to be connected to a pipette such that when a sample is drawn into the pipette, the sample is drawn through the tube in a liquid path; and at least one reagent pad positioned within the interior cavity of the tube and in the liquid path whereby a sample contacts at least a portion of the at least one reagent pad when drawn into the interior cavity, wherein the reagent pipette tip further comprises a pressure mechanism operably connected to the first end of the tube; and characterized in that a tip portion is removably connected to the tube proximate to the second end of the tube.
Device for adjusting the height of a transport star, preferably a transport star of a filler carousel or a closure carousel in a beverage filling plant, comprising a shaft body and a hub body arranged circumferentially around the shaft body, wherein the shaft body and the hub body are displaceable relative to one another along a longitudinal axis of the shaft body for height adjustment, characterised in that the shaft body comprises a groove that extends in the direction of the longitudinal axis and has an outwardly tapering trapezoidal cross-section perpendicular to the longitudinal axis, and in which a trapezoidal wedge with a correspondingly tapering cross-section is guided in the direction of the longitudinal axis, and wherein the trapezoidal wedge can be braced against the groove by means of a fitting bolt supported against the hub body.
An RFID tag comprising: a first surface having a first RFID inlay, a second RFID inlay, and a third RFID inlay, the first surface being disposed within a tag housing, the first, second, and third RFID inlays (406a-c) each corresponding to a different rate identifier, the first, second, and third RFID inlays (406a-c) operable to independently respond to an interrogation signal from an RFID reader; a second surface engaged with the housing and movable among first, second and third positions relative to the corresponding first, second, and third RFID inlays (406a-c), and including a plurality of RFID shorting structures (412a-c) each positioned to electrically contact one of the first, second, and third RFID inlays (406a-c) such that, in any of the first, second, and third positions, only one of the first, second, and third RFID inlays (406a-c) remains disconnected from any of the plurality of RFID shorting structures (412a-c), wherein, in the first position, the first RFID inlay is not connected to any of the plurality of RFID shorting structures (412a-c) and the first RFID inlay is located over a first portion of the second surface, and wherein, in the second position, the third RFID inlay is not connected to any of the plurality of RFID shorting structures (412a-c) and the third RFID inlay is located over a second portion of the second surface, wherein the second portion is in an area different than the first portion. a first surface having a first RFID inlay, a second RFID inlay, and a third RFID inlay, the first surface being disposed within a tag housing, the first, second, and third RFID inlays (406a-c) each corresponding to a different rate identifier, the first, second, and third RFID inlays (406a-c) operable to independently respond to an interrogation signal from an RFID reader; a second surface engaged with the housing and movable among first, second and third positions relative to the corresponding first, second, and third RFID inlays (406a-c), and including a plurality of RFID shorting structures (412a-c) each positioned to electrically contact one of the first, second, and third RFID inlays (406a-c) such that, in any of the first, second, and third positions, only one of the first, second, and third RFID inlays (406a-c) remains disconnected from any of the plurality of RFID shorting structures (412a-c), wherein, in the first position, the first RFID inlay is not connected to any of the plurality of RFID shorting structures (412a-c) and the first RFID inlay is located over a first portion of the second surface, and wherein, in the second position, the third RFID inlay is not connected to any of the plurality of RFID shorting structures (412a-c) and the third RFID inlay is located over a second portion of the second surface, wherein the second portion is in an area different than the first portion.
A method of self-healing at least one first cell in a network or at least one second cell in the network, the network comprising the at least one first cell and the at least one second cell, wherein the at least one first cell and the at least one second cell have at least partially overlapping coverage, characterized in that: the self-healing is performed by a network device applying multi-layer reasoning to integrate information of different cell layers of the at least one first cell and the at least one second cell to analyze and correlate failures on the different cell layers taking into account at least a first location information of the at least one first cell and at least a second location information of the at least one second cell.
A transponder key testing device having a first memory in which is stored data relating to an article signal emitted by each one of a number of articles and a second memory in which is stored data relating to a response signal emitted by each one of a number of transponder keys, the testing device having a receiver adapted to receive an article signal emitted by an article and a response signal emitted by a transponder key, the testing device being adapted to compare the article signal with the data in the first memory, to compare the response signal with the data in the second memory, and to determine whether or not the transponder key is compatible with the article, the testing device further having an output (40, 42) for outputting a result of the compatibility determination.
An encoding device comprising: a sub-band dividing unit configured to divide a frequency band of an input signal and generate a first sub-band signal of a first sub-band on a high frequency side of the input signal; a first sub-band power calculation unit configured to calculate first sub-band power of the first sub-band signal based on the first sub-band signal; a second sub-band power calculation unit configured to carry out an operation to weight more the first sub-band power having larger power, and calculate second sub-band power of a second sub-band signal including a number of sub-bands arrayed continuously in a frequency direction; a generating unit configured to generate data to obtain, by estimating, a high frequency signal of the input signal based on the second sub-band power; a low frequency encoding unit configured encode a low frequency signal of the input signal to generate low frequency encoded data; a multiplexing unit configured to multiplex the data and the low frequency encoded data to generate an output code string; and a pseudo high frequency sub-band power calculation unit configured to calculate pseudo high frequency sub-band power which is an estimated value of the second sub-band power based on the input signal or a feature amount obtained from the low frequency signal, wherein the generating unit generates the data by comparing the second sub-band power with the pseudo high frequency sub-band power. a sub-band dividing unit configured to divide a frequency band of an input signal and generate a first sub-band signal of a first sub-band on a high frequency side of the input signal; a first sub-band power calculation unit configured to calculate first sub-band power of the first sub-band signal based on the first sub-band signal; a second sub-band power calculation unit configured to carry out an operation to weight more the first sub-band power having larger power, and calculate second sub-band power of a second sub-band signal including a number of sub-bands arrayed continuously in a frequency direction; a generating unit configured to generate data to obtain, by estimating, a high frequency signal of the input signal based on the second sub-band power; a low frequency encoding unit configured encode a low frequency signal of the input signal to generate low frequency encoded data; a multiplexing unit configured to multiplex the data and the low frequency encoded data to generate an output code string; and a pseudo high frequency sub-band power calculation unit configured to calculate pseudo high frequency sub-band power which is an estimated value of the second sub-band power based on the input signal or a feature amount obtained from the low frequency signal, wherein the generating unit generates the data by comparing the second sub-band power with the pseudo high frequency sub-band power.
A cell culture vessel having a surface comprising a cell culture media extending material, wherein the cell culture media extending material comprises a hygroscopic polymer and at least one sequestered nutrient, wherein the hygroscopic polymer swells to less than 50 % water by weight in an aqueous environment and wherein the at least one nutrient is glucose, glutamine or a combination of glucose and glutamine, wherein the hygroscopic polymer comprises one or more of poly(ethylene-co-vinyl acetate), ethyl cellulose materials, poly(ethyl cellulose), PDMS, or poly(ether/amide) copolymer.
A power converter stage for providing power supply to a power converter controller, comprising: - a first power storing means on an input side of the power converter stage, - a second power storing means on an output side of the power converter stage, - circuitry for power conversion including a primary inductance, and - a secondary inductance inductively coupled to the primary inductance for supplying power to the power converter controller, characterized in that the circuitry is configured to, during stand-by of the power converter, transfer power in turn through the primary inductance from the first power storing means to the second power storing means and from the second power storing means to the first power storing means and thus provide for a power transfer to the secondary inductance, which then supplies power to the power converter controller. - a first power storing means on an input side of the power converter stage, - a second power storing means on an output side of the power converter stage, - circuitry for power conversion including a primary inductance, and - a secondary inductance inductively coupled to the primary inductance for supplying power to the power converter controller, characterized in that the circuitry is configured to, during stand-by of the power converter, transfer power in turn through the primary inductance from the first power storing means to the second power storing means and from the second power storing means to the first power storing means and thus provide for a power transfer to the secondary inductance, which then supplies power to the power converter controller.