mhurhangee/ep-ind-claims huggingface dataset:
A power supply for a field emission light source, comprising: - a rectifier adapted to form a full-wave rectified mains signal from a mains supply, the mains supply having a mains frequency; - a DC-DC converter configure to receive a source of direct current at a first voltage level from the rectifier, at an input of the DC-DC converter, and to provide a direct current at a second voltage level, at an output of the DC-DC converter, the second voltage level being higher than the first voltage level; - a resonant inverter comprising a transformer, the resonant inverter connected to the output of the DC-DC converter and configured to provide a pulsating signal at a first frequency having a third voltage level, the third voltage level being higher than the second voltage level, - a voltage multiplier rectifying the pulsating signal to a direct current at a fourth voltage level, the fourth voltage level being higher than the third voltage level, the voltage multiplier comprising a pair of output terminals for connecting to the field emission light source, and - a control unit configured to control the resonant inverter based on a feedback relating to the operation of the field emission light source provide from the voltage multiplier, characterized in that the control unit is further configured to apply a PWM control of the resonant inverter to suppress one or a plurality of pulses of the pulsating signal for adjusting the fourth voltage level provided to the field emission light source, a base frequency for the PWM control being selected as a multiple of the mains frequency of the rectified mains signal provided to the DC-DC converter for reducing fluctuations based on the mains frequency. - a rectifier adapted to form a full-wave rectified mains signal from a mains supply, the mains supply having a mains frequency; - a DC-DC converter configure to receive a source of direct current at a first voltage level from the rectifier, at an input of the DC-DC converter, and to provide a direct current at a second voltage level, at an output of the DC-DC converter, the second voltage level being higher than the first voltage level; - a resonant inverter comprising a transformer, the resonant inverter connected to the output of the DC-DC converter and configured to provide a pulsating signal at a first frequency having a third voltage level, the third voltage level being higher than the second voltage level, - a voltage multiplier rectifying the pulsating signal to a direct current at a fourth voltage level, the fourth voltage level being higher than the third voltage level, the voltage multiplier comprising a pair of output terminals for connecting to the field emission light source, and - a control unit configured to control the resonant inverter based on a feedback relating to the operation of the field emission light source provide from the voltage multiplier,
A package comprising an indicia, the indicia comprising a pattern of visibly discernible individual dots, each dot having a first dot diameter, the dots arrayed in a pattern, the pattern set against an orthogonal x-y coordinate system, at least a portion of the dots having nearest neighbors dimensionally offset by a non-integer number of first dot diameters in at least one of the x and y directions; the indicia further comprising dots having a second dot diameter, the second dot diameter different from the first dot diameter, characterized in that the dots having the second diameter comprise printed dots wherein more than a single ink droplet is combined as the dots are printed to increase the ink volume disposed.
A method of transmitting video data from a wireless display source device to a wireless display sink device, wherein the wireless display source device includes a local display, the method comprising: obtaining, with the wireless display source device, encoded audio data and encoded video data for a frame of video data; outputting, at the local display of the wireless display source device, a predefined frame rather than the frame of video data; and the decoded audio data; characterized in that the method further comprises determining a presentation time based on the time when the predefined frame is consumed for rendering on the local display synchronized with the audio data for the frame of video data after audio-video synchronization is performed by the wireless display source device; determining a timestamp from the determined presentation time; and sending, from the wireless display source device to the wireless display sink device, the encoded video data for display at a display device associated with the wireless display sink device in association with the timestamp. obtaining, with the wireless display source device, encoded audio data and encoded video data for a frame of video data; outputting, at the local display of the wireless display source device, a predefined frame rather than the frame of video data; and the decoded audio data; characterized in that the method further comprises determining a presentation time based on the time when the predefined frame is consumed for rendering on the local display synchronized with the audio data for the frame of video data after audio-video synchronization is performed by the wireless display source device; determining a timestamp from the determined presentation time; and sending, from the wireless display source device to the wireless display sink device, the encoded video data for display at a display device associated with the wireless display sink device in association with the timestamp.
A plated steel sheet comprising: a steel sheet; and a plating layer that is formed on at least a part of a surface of the steel sheet, wherein a chemical composition of the plating layer includes, by mass%, Al: 6.00% to 35.00%, Mg: 3.00% to 15.00%, La + Ce: 0.0001% to 0.5000% in total, Si: 0% to 2.00%, Ca: 0% to 2.00%, Fe: 0% to 2.00%, Sb: 0% to 0.50%, Sr: 0% to 0.50%, Pb: 0% to 0.50%, Sn: 0% to 1.00%, Cu: 0% to 1.00%, Ti: 0% to 1.00%, Ni: 0% to 1.00%, Mn: 0% to 1.00%, and a remainder of Zn and impurities, and in a surface of the plating layer, an area ratio of a lamellar structure in which an Al-Zn phase and a MgZn 2 phase are arranged in layers is 10% to 95%, a lamellar spacing of the lamellar structure is 2.5 μm or less, and an area ratio of an Al-Zn dendrite is 10% or less, wherein the chemical composition of the plating layer and the area ratios of the Al-Zn phase, the MgZn 2 phase, the Al-Zn dendrite, and the lamellar spacing are measured as described in the description. a steel sheet; and a plating layer that is formed on at least a part of a surface of the steel sheet, wherein a chemical composition of the plating layer includes, by mass%, Al: 6.00% to 35.00%, Mg: 3.00% to 15.00%, La + Ce: 0.0001% to 0.5000% in total, Si: 0% to 2.00%, Ca: 0% to 2.00%, Fe: 0% to 2.00%, Sb: 0% to 0.50%, Sr: 0% to 0.50%, Pb: 0% to 0.50%, Sn: 0% to 1.00%, Cu: 0% to 1.00%, Ti: 0% to 1.00%, Ni: 0% to 1.00%, Mn: 0% to 1.00%, and a remainder of Zn and impurities, and in a surface of the plating layer, an area ratio of a lamellar structure in which an Al-Zn phase and a MgZn 2 phase are arranged in layers is 10% to 95%, a lamellar spacing of the lamellar structure is 2.5 μm or less, and an area ratio of an Al-Zn dendrite is 10% or less, wherein the chemical composition of the plating layer and the area ratios of the Al-Zn phase, the MgZn 2 phase, the Al-Zn dendrite, and the lamellar spacing are measured as described in the description.
A pet absorbent sheet comprising: a top sheet disposed on a top side, a back sheet disposed on a back side, an absorbent core provided between the top sheet and the back sheet; ┌ a colorant ┘ and a cover layer and a wrap layer that wrap the absorbent core; wherein the wrap layer is made of a liquid permeable sheet and includes a plurality of hydrophilic fibers, wherein the warp layer is provided on a non-excretion surface side of the absorbent core, wherein the cover layer is configured by a liquid-permeable sheet that is provided between the top sheet and the absorbent core and includes a plurality of hydrophilic fibers, the cover layer covering an excretion surface side of the absorbent core; characterized in that the wrap layer is folded back toward the top side of the absorbent core from the back side of the absorbent core on a side surface of the absorbent core and a portion folded back toward the top side of the wrap layer is located closer to the top side than an end portion of the cover layer so that both the cover layer and the wrap layer wrap the absorbent core; the pet absorbent sheet comprises a plurality of waterproof regions including a water resisting agent that is partially provided in the cover layer, the water resisting agent in the waterproof regions is formed astride gaps between fibers formed of the plurality of hydrophilic fibers, an area of each of the plurality of waterproof regions is in a range of 0.5 to 1.5 mm 2, and the water resisting agent includes ┌ the ┘ colorant. a top sheet disposed on a top side, a back sheet disposed on a back side, an absorbent core provided between the top sheet and the back sheet; ┌ a colorant ┘ and a cover layer and a wrap layer that wrap the absorbent core; wherein the wrap layer is made of a liquid permeable sheet and includes a plurality of hydrophilic fibers, wherein the warp layer is provided on a non-excretion surface side of the absorbent core, wherein the cover layer is configured by a liquid-permeable sheet that is provided between the top sheet and the absorbent core and includes a plurality of hydrophilic fibers, the cover layer covering an excretion surface side of the absorbent core; characterized in that the wrap layer is folded back toward the top side of the absorbent core from the back side of the absorbent core on a side surface of the absorbent core and a portion folded back toward the top side of the wrap layer is located closer to the top side than an end portion of the cover layer so that both the cover layer and the wrap layer wrap the absorbent core; the pet absorbent sheet comprises a plurality of waterproof regions including a water resisting agent that is partially provided in the cover layer, the water resisting agent in the waterproof regions is formed astride gaps between fibers formed of the plurality of hydrophilic fibers, an area of each of the plurality of waterproof regions is in a range of 0.5 to 1.5 mm 2, and the water resisting agent includes ┌ the ┘ colorant.
Display device for an elevator system having at least one elevator shaft (1.1, 1.2), in which elevator shaft a plurality of elevator cars (2.1-2.4) move, comprising an identifier manager which allocates a temporary identifier ("A1", "A2", "A3") to an elevator car executing a transport order; and at least one display (5.60, 5.70, 5.100) assigned to a boarding location (4.6, 4.7, 4.10) for outputting the allocated temporary identifier, and the display (5.60, 5.70, 5.100) simultaneously shows the identifiers of a plurality of elevator cars (2.1-2.4) which move in the same elevator shaft (1.1), characterized in that the identifiers ("A1", "A2", "A3") output by the display are allocated to those elevator cars (2.1-2.4) which will be next to stop at the boarding location (4.6, 4.7, 4.10) to which the display (5.60, 5.70, 5.100) is assigned.
A method of decoding at least one coding unit from a bitstream of video data, the method comprising: determining, from data in the bitstream, a coding unit structure of the at least one coding unit using a split flag indicating whether a coding unit is divided and a partition mode used for dividing the coding unit into one or more prediction units, said partition mode being determinable using a prediction mode value indicating a prediction mode used for the coding unit (901-903, 1001); decoding, according to the determined coding unit structure, a plurality of arithmetically coded most probable mode flags, which comprise a most probable mode flag for each of a plurality of prediction units in the coding unit, from a first block of adjacently coded data in the bitstream (904, 905, 1001); decoding, according to the determined coding unit structure, a plurality of pieces of bypass coded data, which comprise a piece of bypass coded data for each of the plurality of prediction units in the coding unit, from a second block of adjacently coded data in the bitstream; determining an intra-prediction mode for each of the plurality of prediction units according to the decoded most probable mode flag and the decoded piece of the bypass coded data (906, 907, 1002); and decoding the coding unit from the bitstream using the determined intra-prediction modes, wherein the bypass coded data contains a most probable mode index or a remaining mode value. determining, from data in the bitstream, a coding unit structure of the at least one coding unit using a split flag indicating whether a coding unit is divided and a partition mode used for dividing the coding unit into one or more prediction units, said partition mode being determinable using a prediction mode value indicating a prediction mode used for the coding unit (901-903, 1001); decoding, according to the determined coding unit structure, a plurality of arithmetically coded most probable mode flags, which comprise a most probable mode flag for each of a plurality of prediction units in the coding unit, from a first block of adjacently coded data in the bitstream (904, 905, 1001); decoding, according to the determined coding unit structure, a plurality of pieces of bypass coded data, which comprise a piece of bypass coded data for each of the plurality of prediction units in the coding unit, from a second block of adjacently coded data in the bitstream; determining an intra-prediction mode for each of the plurality of prediction units according to the decoded most probable mode flag and the decoded piece of the bypass coded data (906, 907, 1002); and decoding the coding unit from the bitstream using the determined intra-prediction modes, wherein the bypass coded data contains a most probable mode index or a remaining mode value.
Method of detecting analytes of interest which are present in a liquid of interest, which includes the following steps: - introducing a liquid of interest into a detection device including a lower substrate and an upper substrate, said lower and upper substrates being arranged facing each other, said upper substrate having a first surface, said lower substrate including at least one electrochemical oscillator having a detection surface, said first surface being parallel to said detection surface, said detection surface facing said first surface; - forming a finger of liquid on said first surface by liquid dielectrophoresis, under the effect of an electrical control, the finger of liquid extending along two approximately coplanar movement electrodes (40, 41) which are arranged on said first surface, said movement electrodes (40, 41) including at least one drop formation zone facing said detection surface; - stopping the electrical control, so that the finger of liquid breaks by capillarity, generating at least one drop on one of said at least one drop formation zones, said at least one drop having sufficient thickness to come into contact with said detection surface; - detecting said analytes of interest which are present in said at least one drop by detection means (70, 71; 72, 73; 74; 75; 76) working with said detection surface. - introducing a liquid of interest into a detection device including a lower substrate and an upper substrate, said lower and upper substrates being arranged facing each other, said upper substrate having a first surface, said lower substrate including at least one electrochemical oscillator having a detection surface, said first surface being parallel to said detection surface, said detection surface facing said first surface; - forming a finger of liquid on said first surface by liquid dielectrophoresis, under the effect of an electrical control, the finger of liquid extending along two approximately coplanar movement electrodes (40, 41) which are arranged on said first surface, said movement electrodes (40, 41) including at least one drop formation zone facing said detection surface; - stopping the electrical control, so that the finger of liquid breaks by capillarity, generating at least one drop on one of said at least one drop formation zones, said at least one drop having sufficient thickness to come into contact with said detection surface; - detecting said analytes of interest which are present in said at least one drop by detection means (70, 71; 72, 73; 74; 75; 76) working with said detection surface.
A sole structure for an article of footwear, comprising: a first contact surface portion located at a medial, heel area including a first herringbone traction element structure, wherein the first herringbone traction element structure includes a first propagation direction and a first plurality of peaks, wherein the first propagation direction extends in a heel-to-toe direction, and wherein the first plurality of peaks point toward medial and lateral sides of the sole structure; and a second contact surface portion located at a medial, forefoot area including a second herringbone traction element structure, wherein the second herringbone traction element structure includes a second propagation direction and a second plurality of peaks, wherein the second propagation direction extends in a medial side-to-lateral side direction, and wherein the second plurality of peaks point toward heel and toe ends of the sole structure, wherein the first herringbone traction element structure extends from the medial, heel area, across an arch area of the sole structure, to a lateral, forefoot area. a first contact surface portion located at a medial, heel area including a first herringbone traction element structure, wherein the first herringbone traction element structure includes a first propagation direction and a first plurality of peaks, wherein the first propagation direction extends in a heel-to-toe direction, and wherein the first plurality of peaks point toward medial and lateral sides of the sole structure; and a second contact surface portion located at a medial, forefoot area including a second herringbone traction element structure, wherein the second herringbone traction element structure includes a second propagation direction and a second plurality of peaks, wherein the second propagation direction extends in a medial side-to-lateral side direction, and wherein the second plurality of peaks point toward heel and toe ends of the sole structure, wherein the first herringbone traction element structure extends from the medial, heel area, across an arch area of the sole structure, to a lateral, forefoot area.
A photocurable fixture for orthopedic surgery, which comprises as a base material woven fabric, knit or non-woven fabric, and a photocurable resin containing a urethane (meth) acrylate oligomer represented by the following formula,and a photopolymerization initiator, retained in the base material, wherein A denotes a diisocyanate residue, and each of X and Y denotes a (meth)acrylate residue having a hydroxy group, wherein the compound of the formula is a compound wherein at least 40 mol% of X and Y is a residue obtained by removing a hydroxy group from a (meth)acrylate having a hydroxy group represented by the following formula, wherein each of R1 to R6 denotes a hydrogen atom or a methyl group, and wherein the photopolymerization initiator absorbs a light within a range of 400 to 700 nm.
An animal feed being selected from the group consisting of silage, pelletized feed and mash feed, the said animal feed being supplemented with a composition comprising a xylanase, wherein the said xylanase is hyperthermophilic and hyperthermostable, wherein the optimum temperature of the xylanolytic activity present in the said composition is higher than 80°C, wherein more than 70% of the xylanolytic activity present in the said composition is resistant to 30 minutes of heating at 90°C and wherein the ratio of activity of the xylanolytic activity present in the said composition at optimal temperature and at 40°C is higher than 10.
A tubular handling system, comprising: a power tong configured to engage and rotate an add-on tubular by applying a torque thereto, the power tong defining a central opening configured to receive the add-on tubular therethrough; wherein the tubular handling system further comprises a spider disposed at a rig floor, the spider being configured to support a tubular string and transmit a reactionary torque to the tubular string, when supporting the tubular string, the reactionary torque being generated in reaction to the torque applied by the power tong; a lifting assembly coupled with the power tong and configured to move the power tong vertically with respect to the tubular string and the spider, wherein the lifting assembly transmits the reactionary torque from the power tong to the spider; and a torque-measuring device configured to measure the reactionary torque transmitted from the power tong to the lifting assembly and from the lifting assembly to the spider. a power tong configured to engage and rotate an add-on tubular by applying a torque thereto, the power tong defining a central opening configured to receive the add-on tubular therethrough; wherein the tubular handling system further comprises a spider disposed at a rig floor, the spider being configured to support a tubular string and transmit a reactionary torque to the tubular string, when supporting the tubular string, the reactionary torque being generated in reaction to the torque applied by the power tong; a lifting assembly coupled with the power tong and configured to move the power tong vertically with respect to the tubular string and the spider, wherein the lifting assembly transmits the reactionary torque from the power tong to the spider; and a torque-measuring device configured to measure the reactionary torque transmitted from the power tong to the lifting assembly and from the lifting assembly to the spider.
Roller shutter box which has, in the installation position in masonry of a building, a front side directed towards the surroundings U, a rear side directed towards the building interior I, a lower side directed towards the window shaded by the roller shutter of the roller shutter box, an upper side facing away from the window and an interior space between the front side, upper side, rear side and lower side, with noise insulation, characterized in that the noise insulation is fitted on the upper side on the side facing way from the interior space on the side facing the building interior I.
A method for operating a sun protection system with a number of radio actuators (10a - 10d) and a number of system components, each of which can be controlled by means of one of the radio actuators (10a - 10d), wherein a radio transmitter, a radio receiver and a microprocessor with a memory unit are integrated in each radio actuator (10a - 10d), wherein the radio actuators (10a - 10d) form a decentralised network, wherein the radio actuators (10a - 10d) are controlled by means of a radio receiver and a microprocessor with a memory unit, a radio receiver and a microprocessor with a memory unit is integrated in each radio actuator (10a - 10d), wherein the radio actuators (10a - 10d) form a decentralised network, wherein the radio actuators (10a - 10d) communicate with one another by transmitting and receiving radio signals, wherein the network has a master-slave configuration, wherein in the master-slave configuration one of the radio actuators (10a - 10d) forms a master and the other radio actuators (10a - 10d) form slaves, wherein only a predetermined quantity of commands for controlling the associated slave system components is permitted for each slave depending on the state of the master system components assigned to the master.