mhurhangee/ep-ind-claims huggingface dataset:
An ink jet recording method of transferring onto a recording medium an intermediate image formed on an intermediate transfer member by an ink jet technique to record an image on the recording medium, the method comprising: a) a pretreatment agent applying step of applying a pretreatment agent onto an intermediate transfer member; b) an ink applying step of applying an ink by an ink jet technique onto a region of the intermediate transfer member onto which the pretreatment agent is applied, thereby forming an intermediate image; and c) a transfer step of transferring the intermediate image formed on the intermediate transfer member onto a recording medium; characterized by a selection controlling step of controlling selection of execution or non-execution of the transfer step after the pretreatment agent applying step and the ink applying step have been performed at least once, based on an amount of the ink applied onto the intermediate transfer member, and if non-execution of the transfer step is selected in the selection controlling step, the pretreatment agent applying step is not executed and the ink applying step is executed again. a) a pretreatment agent applying step of applying a pretreatment agent onto an intermediate transfer member; b) an ink applying step of applying an ink by an ink jet technique onto a region of the intermediate transfer member onto which the pretreatment agent is applied, thereby forming an intermediate image; and c) a transfer step of transferring the intermediate image formed on the intermediate transfer member onto a recording medium;
A spice grinder comprising a grinder unit and a bottle having an external screw thread adjacent the mouth of the bottle, the grinder unit comprising a first grinder component having an internal screw thread (18.1) compatible with that of the bottle and a second grinder component which can rotate with respect to the first component, the components having co-operating grinding teeth (28, 44, 50), characterised in that there is a first ramp on the inside surface of the first component and a second ramp on the external surface of the bottle, each ramp (54, 66) having a camming surface (56, 68) which intersects with a locking surface (58, 70), the ramps being configured and positioned such that the camming surface of the first ramp encounters and rides over the camming surface of the second ramp as the fixed component is screwed onto the bottle, and such that the locking surfaces (58, 70) can come into contact with each other and prevent rotation of the fixed component in the direction which unscrews it from the bottle.
Method for operating a steering system, in particular an electrically assisted steering system, the steering system comprising at least one first fluid sensor unit for the detection of at least one penetrating first fluid and at least one second fluid sensor unit which is arranged separated spatially from the first fluid sensor unit for the detection of at least one penetrating second fluid, and at least one first reaction behaviour being triggered as a reaction to the detection of the first fluid, and at least one second reaction behaviour which differs at least in part from the first reaction behaviour being triggered as a reaction to the detection of the second fluid, characterized in that, in the case of at least one of the reaction behaviours, a current driving mode in the form of an autonomous and/or partially autonomous driving mode is taken into consideration, and a reaction which is linked to the reaction behaviour is adapted in a manner which is dependent on the current driving mode.
A method at a network element comprising: when operating in an idle mode, and upon detecting uplink transmissions on a component carrier in a neighbor cell of a cell covered by the network element, moving the network element from the idle mode to an active state; and on moving to the active state, the method further comprises: requesting at least one of downlink or uplink component carriers from a macro cell; receiving activation of the at least one of downlink and uplink component carriers; and transmitting on the downlink component carrier. when operating in an idle mode, and upon detecting uplink transmissions on a component carrier in a neighbor cell of a cell covered by the network element, moving the network element from the idle mode to an active state; and on moving to the active state, the method further comprises: requesting at least one of downlink or uplink component carriers from a macro cell; receiving activation of the at least one of downlink and uplink component carriers; and transmitting on the downlink component carrier. requesting at least one of downlink or uplink component carriers from a macro cell; receiving activation of the at least one of downlink and uplink component carriers; and transmitting on the downlink component carrier.
Face mask for separating infectious germs with a filter medium, which consists of a spun nonwoven fabric from polypropylene filaments, which have a fiber titer of at least 1.3 dtex, wherein the spun nonwoven fabric is electrostatically charged, wherein the electrostatically charged spun nonwoven fabric has a basis weight of 70 to 400 g/m 2, wherein the spun nonwoven fabric consists of two or more layers, wherein optionally a further layer is comprised, which is not a filter medium.
A method for broadcasting content to a plurality of reception terminals, comprising the steps of: storing content and a plurality of program configuration information, wherein each of the plurality of program configuration information includes layout information indicating which of a plurality of media including video, audio, text, and still image is to be displayed as program content and respective display positions of the plurality of media to be displayed on a screen of the plurality of reception terminals; and transmitting the content and the plurality of program configuration information to the reception terminals, wherein, in the step of storing the plurality of program configuration information, the plurality of program configuration information is associated with respective transmission bands, so that each of the reception terminals selects one of the received plurality of program configuration information based on a transmission condition. storing content and a plurality of program configuration information, wherein each of the plurality of program configuration information includes layout information indicating which of a plurality of media including video, audio, text, and still image is to be displayed as program content and respective display positions of the plurality of media to be displayed on a screen of the plurality of reception terminals; and transmitting the content and the plurality of program configuration information to the reception terminals, wherein, in the step of storing the plurality of program configuration information, the plurality of program configuration information is associated with respective transmission bands, so that each of the reception terminals selects one of the received plurality of program configuration information based on a transmission condition.
An in-cell touch panel, comprising an upper substrate and a lower substrate opposite to each other, wherein the upper substrate is provided with a plurality of touch sensing electrodes, the lower substrate is provided with a plurality of touch driving electrodes, and the touch sensing electrodes are laterally distributed, and the touch driving electrodes are longitudinally distributed; and wherein each of the touch sensing electrodes comprise one or a plurality of touch sensing sub-electrodes which are parallel to each other and distributed laterally, and the plurality of touch sensing sub-electrodes are in parallel connection therebetween, characterized in that the touch driving electrodes comprise a plurality of longitudinally distributed touch driving sub-electrodes which are in series connection therebetween through a lead located in a peripheral area; and that the lower substrate further comprises a plurality of pixel electrodes which are located at a different layer with respect to the touch driving electrodes, the plurality of touch driving sub-electrodes of the touch driving electrodes furthermore being in series connection with each other through a connection line provided at the same layer with the pixel electrodes, and the connection line being located in a non-display area between two adjacent columns of pixel electrodes.
A traction drive mechanism comprising a first planetary roller mechanism and a second planetary roller mechanism that are connected in series, the first planetary roller mechanism including a plurality of first planetary rollers rotatably supported by a first carrier, the first planetary rollers being held in contact between a first sun roller and a first ring roller, the second planetary roller mechanism including a plurality of second planetary rollers rotatably supported by a second carrier, and the second planetary rollers being held in contact between a second sun roller and a second ring roller, wherein the second sun roller is coupled to the first carrier, and the rotations of the first and second ring rollers (22, 62) are constrained, characterized in that N 1 =3, N 2 =3, 4, 5, or 6, and (ρ 1 +1)×(ρ 2 +1)≥24+16×2 0.5 in which N 1 is the number of the first planetary rollers, N 2 is the number of the second planetary rollers, ρ 1 is the ratio between the inner diameter of the first ring roller and the outer diameter of the first sun roller, and ρ 2 is the ratio between the inner diameter of the second ring roller and the outer diameter of the second sun roller, and provided that N 2 =3, ρ 1 ≥0.102×(ρ 1 +1)×(ρ 2 +1)+1.196, and ρ 1 ≤min[0.204×(ρ 1 +1)×(ρ 2 +1)+3.123, 7+4×3 0.5] when the value of a smaller one of (0.204×(ρ 1 +1)×(ρ 2 +1)+3.123) and (7+4×3 0.5) is min [0.204×(ρ+1)×(ρ 2 +1)+3.123, 7+4×3 0.5], or provided that N 2 =4, ρ 1 ≥(2-2 0.5)×(ρ 1 +1)×(ρ 2 +1)/4-1, and ρ 1 ≤min[0.185×(ρ 1 +1)×(ρ 2 +1)+1.320, 7+4×3 0.5 when the value of a smaller one of (0.185×(ρ 1 +1)×(ρ 2 +1)+1.320) and (7+4×3 0.5) is min[0.185×(ρ 1 +1)×(ρ 2 +1)+1.320, 7+4ρ3 0.5], or provided that N 2 =5, ρ 1 ≥0.206×(ρ 1 +1)×(ρ 2 +1)-1, and ρ 1≤ min[0.234×(ρ 1 +1)×(ρ 2 +1)-0.480, 7+4×3 0.5] when the value of a smaller one of (0.234×(ρ+1)×(ρ 2 +1)-0.480) and (7+4×3 0.5) is min[0.234×(ρ 1 +1)×(ρ 2 +1)-0.480, 7+4×3 0.5], or provided that N 2 =6, ρ 1 ≥0.25×(ρ 1 +1)×(ρ 2 +1)-1, and ρ 1 ≤min[0.278×(ρ 1 +1)×(ρ 2 +1)-0.603, 7+4×3 0.5] when the value of a smaller one of (0.278×(ρ 1 +1)×(ρ 2 +1)-0.603) and (7+4×3 0.5) is min[0.278×(ρ 1 +1)×(ρ 2 +1)-0.603, 7+4×3 0.5].
A gas turbine system, comprising: a gas turbine comprising an inlet configured to receive inlet air and being configured to combust a fuel to generate power, wherein the gas turbine comprises: a chilling assembly (44,58) configured to reduce the temperature of the inlet air to produce chilled air; a low pressure compressor configured to compress the chilled air to produce a first compressed air supply; an intercooler configured to cool the first compressed air supply to produce a cooled air supply; a high pressure compressor configured to compress the cooled air supply to produce a second compressed air supply, wherein the intercooler is disposed in-line between the low pressure compressor and the high pressure compressor; and a combustor configured to combust the fuel in the presence of the second compressed air supply to generate the power; and a control system configured to determine a first expected condensation level at the intercooler and to control operation of the chilling assembly to produce the chilled air at a temperature corresponding to a second expected condensation level reduced from the first expected condensation level. a gas turbine comprising an inlet configured to receive inlet air and being configured to combust a fuel to generate power, wherein the gas turbine comprises: a chilling assembly (44,58) configured to reduce the temperature of the inlet air to produce chilled air; a low pressure compressor configured to compress the chilled air to produce a first compressed air supply; an intercooler configured to cool the first compressed air supply to produce a cooled air supply; a high pressure compressor configured to compress the cooled air supply to produce a second compressed air supply, wherein the intercooler is disposed in-line between the low pressure compressor and the high pressure compressor; and a combustor configured to combust the fuel in the presence of the second compressed air supply to generate the power; and a chilling assembly (44,58) configured to reduce the temperature of the inlet air to produce chilled air; a low pressure compressor configured to compress the chilled air to produce a first compressed air supply; an intercooler configured to cool the first compressed air supply to produce a cooled air supply; a high pressure compressor configured to compress the cooled air supply to produce a second compressed air supply, wherein the intercooler is disposed in-line between the low pressure compressor and the high pressure compressor; and a combustor configured to combust the fuel in the presence of the second compressed air supply to generate the power; and a control system configured to determine a first expected condensation level at the intercooler and to control operation of the chilling assembly to produce the chilled air at a temperature corresponding to a second expected condensation level reduced from the first expected condensation level.
A method for calibrating a Raman amplifier comprising steps of: responsive to a determination of a safe level that is a level that keeps adverse intermodulation effects below a predetermined threshold regardless of a specific fiber-type, setting the gain of a plurality of pump lasers of the Raman amplifier (34, 50, 60) to the safe level, wherein the pump lasers operate at different wavelengths, wherein the Raman amplifier is connected to a fiber span having the specific fiber-type, and increasing the gain of the pump lasers from the safe level, monitoring a noise floor during the increasing, and, responsive to a change in the noise floor detected in the monitoring, keeping the adverse intermodulation effects below the predetermined threshold by adjusting the gain of the pump lasers back to the safe level; wherein the steps include obtaining a first measurement of a noise floor of a spectrum associated with operation of an Optical Multiplex Section, OMS, that includes at least the Raman amplifier (34, 50, 60) and the fiber span when the gain is set to the safe level, setting the first measurement as a baseline noise profile, obtaining a second measurement of the noise floor of the spectrum after the gain is increased, and comparing the second measurement with the baseline noise profile, wherein, in response to determining a rise in the second measurement at least in one or more spectrum locations or sub-bands with respect to the baseline noise profile, the steps include reducing the gain back to the safe level. responsive to a determination of a safe level that is a level that keeps adverse intermodulation effects below a predetermined threshold regardless of a specific fiber-type, setting the gain of a plurality of pump lasers of the Raman amplifier (34, 50, 60) to the safe level, wherein the pump lasers operate at different wavelengths, wherein the Raman amplifier is connected to a fiber span having the specific fiber-type, and increasing the gain of the pump lasers from the safe level, monitoring a noise floor during the increasing, and, responsive to a change in the noise floor detected in the monitoring, keeping the adverse intermodulation effects below the predetermined threshold by adjusting the gain of the pump lasers back to the safe level; wherein the steps include obtaining a first measurement of a noise floor of a spectrum associated with operation of an Optical Multiplex Section, OMS, that includes at least the Raman amplifier (34, 50, 60) and the fiber span when the gain is set to the safe level, setting the first measurement as a baseline noise profile, obtaining a second measurement of the noise floor of the spectrum after the gain is increased, and comparing the second measurement with the baseline noise profile, wherein, in response to determining a rise in the second measurement at least in one or more spectrum locations or sub-bands with respect to the baseline noise profile, the steps include reducing the gain back to the safe level.
An actuating device comprising a linearly movable, fluidically operated piston drive and a swing shaft, which is rotatably supported in a housing, for a lever arm that is connected to the swing shaft in a rotationally rigid fashion, wherein a control mechanism is provided for connecting the piston drive to the swing shaft and a damping device is provided for damping the motion of the lever arm, and wherein the damping device is connected to the housing on the one hand and to the swing shaft on the other hand, characterized in that the damping device comprises a chamber, in which a piston is movably supported.
A method for detecting a rotation of a rotor of a generator with a controller for closed-loop control of a generator voltage, wherein the controller can be set to an active state and to an inactive state, in particular in a standby mode, wherein, in the inactive state, an excitation circuit of the generator is separated from an activation potential, wherein in the inactive state, by: measuring an excitation voltage (U E), induced by rotation of the rotor, in the inactive state, the rotation of the rotor is detected on the basis of the measured induced excitation voltage (U E). measuring an excitation voltage (U E), induced by rotation of the rotor, in the inactive state, the rotation of the rotor is detected on the basis of the measured induced excitation voltage (U E).
Sewer-cleaning vehicle comprising a driver's cab, a suction hose, at least one flushing hose, and a device for guiding the suction hose and the at least one flushing hose on the sewer-cleaning vehicle, said device comprising a telescopable boom which is mounted such as to be able to rotate about a vertical axis and on which the suction hose and the flushing hose are guided, and a reel mounted separately from the boom for storing a portion of the flushing hose, wherein the boom is provided with a guide device for the flushing hose between the reel and an end of the boom, and the flushing hose has a section running into the guide device and a section running out from the guide device, wherein the guide device has a ring-shaped holder, onto which the flushing hose (6, 8) is wound by at least half a loop, characterized in that the boom with the suction hose and the flushing hose can be swivelled through at least 220° about the vertical axis, wherein it is possible to swivel the boom out of a transport position, in which the end of the boom is positioned at the rear of the sewer-cleaning vehicle, through approximately 180°, so that the end of the boom is located with a vertical section of the suction hose and an end of the flushing hose in front of the driver's cab and from there can be lowered into a sewer shaft.
A method of automatically determining off-bottom drillstring torque, the method comprising: receiving data regarding a plurality of drilling parameters characterizing a wellbore drilling operation, wherein the plurality of drilling parameters comprise a surface torque, a drillstring rotatory speed in a revolutions per minute, a weight on bit, a hole depth and a bit depth; recording the surface torque as an off-bottom drillstring torque data point if: the bit depth is less than the hole depth; the RPM is within a target range; and the WOB is less than a threshold value; and calculating the off-bottom drillstring torque as a function of depth from a plurality of off-bottom drillstring torque data points. receiving data regarding a plurality of drilling parameters characterizing a wellbore drilling operation, wherein the plurality of drilling parameters comprise a surface torque, a drillstring rotatory speed in a revolutions per minute, a weight on bit, a hole depth and a bit depth; recording the surface torque as an off-bottom drillstring torque data point if: the bit depth is less than the hole depth; the RPM is within a target range; and the WOB is less than a threshold value; and the bit depth is less than the hole depth; the RPM is within a target range; and the WOB is less than a threshold value; and calculating the off-bottom drillstring torque as a function of depth from a plurality of off-bottom drillstring torque data points.
Device which can trap and remove a condensate derived from a fluid which is exhaled by a patient connected to a ventilation circuit, said device comprising a body with a first duct for direct or indirect connection to a ventilation apparatus of this circuit, and a second duct configured to be connected to the patient, said body having a first and a second portion (3, 4) connected to one another, the second portion being able to collect said condensate from the exhaled fluid, said second portion comprising a bottom wall from which there rises a lateral wall delimiting a cavity for collection of said condensate, said lateral wall having an opening connected to said second duct for intake of the fluid exhaled into said cavity, an absorbent element being provided which can absorb this condensate collected in the second portion of this body, said absorbent element being replaceable, wherein said body comprises deflector means placed inside said cavity in the second portion and which means can direct the flow of the exhaled fluid entering into this cavity towards the absorbent element.
An adhesive material comprising a support and an adhesive layer laminated on one surface of the support, wherein the adhesive layer has an apparent viscosity at 30°C of 0.2×10 4 to 10×10 4 Pa·s and comprises two kinds of synthetic rubbers having different flowability wherein the two kinds of synthetic rubbers comprise a first synthetic rubber, which is a 2-methylpropene polymer having a Staudinger Index of 170-300 cm 3 /g, and a second synthetic rubber, which is a 2-methylpropene polymer having a Staudinger Index of 30-60 cm 3 /g, and wherein the proportion of the second synthetic rubber relative to the whole weight of the adhesive layer is 30-85 %.
An optical lens comprising: a front lens comprising a front lens exterior surface and a front lens interior surface; a back lens comprising a back lens interior surface and a back lens exterior surface, said back lens positioned proximate to said front lens such that said front lens interior surface and said back lens interior surface form a cavity therebetween; a volume of saline solution and oil contained within the cavity formed between said front lens interior surface and said back lens interior surface, said volume of saline solution and oil comprising a meniscus therebetween; and a meniscus wall formed on an area of the interior surface of one or both of the front lens and back lens and bordering the meniscus formed between the saline solution and oil, characterised in that the meniscus wall comprises microchannels configured to retain a portion of the oil. a front lens comprising a front lens exterior surface and a front lens interior surface; a back lens comprising a back lens interior surface and a back lens exterior surface, said back lens positioned proximate to said front lens such that said front lens interior surface and said back lens interior surface form a cavity therebetween; a volume of saline solution and oil contained within the cavity formed between said front lens interior surface and said back lens interior surface, said volume of saline solution and oil comprising a meniscus therebetween; and a meniscus wall formed on an area of the interior surface of one or both of the front lens and back lens and bordering the meniscus formed between the saline solution and oil, characterised in that the meniscus wall comprises microchannels configured to retain a portion of the oil.