mhurhangee/ep-ind-claims huggingface dataset:
A fluid sampling device, the device comprising: a fluid composition sensor configured to receive a fluid sample and capture a plurality of particles from the fluid sample at a collection media, wherein the fluid composition sensor is further configured to generate particle data associated with the plurality of particles using a particle imaging operation; and a controller, the controller being configured to: determine an optimal sample volume to be sampled during a sample collection operation based at least in part on a comparison between a particle load condition defined by the plurality of particles captured at the collection media at a first instance during the sample collection operation and a predetermined optimal particle load condition, and further based on an identified first amount of time elapsed between the start of the sample collection operation and the first instance, and a known volumetric flow rate of the fluid composition sensor; and update one or more operational characteristics of the fluid composition sensor such that the sample collection operation is defined at least in part by the optimal sample volume. a fluid composition sensor configured to receive a fluid sample and capture a plurality of particles from the fluid sample at a collection media, wherein the fluid composition sensor is further configured to generate particle data associated with the plurality of particles using a particle imaging operation; and a controller, the controller being configured to: determine an optimal sample volume to be sampled during a sample collection operation based at least in part on a comparison between a particle load condition defined by the plurality of particles captured at the collection media at a first instance during the sample collection operation and a predetermined optimal particle load condition, and further based on an identified first amount of time elapsed between the start of the sample collection operation and the first instance, and a known volumetric flow rate of the fluid composition sensor; and update one or more operational characteristics of the fluid composition sensor such that the sample collection operation is defined at least in part by the optimal sample volume. determine an optimal sample volume to be sampled during a sample collection operation based at least in part on a comparison between a particle load condition defined by the plurality of particles captured at the collection media at a first instance during the sample collection operation and a predetermined optimal particle load condition, and further based on an identified first amount of time elapsed between the start of the sample collection operation and the first instance, and a known volumetric flow rate of the fluid composition sensor; and update one or more operational characteristics of the fluid composition sensor such that the sample collection operation is defined at least in part by the optimal sample volume.
A method of wireless communication comprising: receiving a first message from a first wireless communication device and a second message from a second wireless communication device; obtaining information associated with a first processing delay with respect to the first message and a second processing delay with respect to the second message; and transmitting a third message comprising: an indication of the information associated with the first and second processing delays, characterized in that said method further comprises: obtaining an accuracy associated with the first and second processing delays, and wherein the third message further comprises the accuracy associated with the first and second processing delays. receiving a first message from a first wireless communication device and a second message from a second wireless communication device; obtaining information associated with a first processing delay with respect to the first message and a second processing delay with respect to the second message; and transmitting a third message comprising: an indication of the information associated with the first and second processing delays, characterized in that said method further comprises: obtaining an accuracy associated with the first and second processing delays, and wherein the third message further comprises the accuracy associated with the first and second processing delays. an indication of the information associated with the first and second processing delays, characterized in that said method further comprises: obtaining an accuracy associated with the first and second processing delays, and wherein the third message further comprises the accuracy associated with the first and second processing delays. obtaining an accuracy associated with the first and second processing delays, and wherein the third message further comprises the accuracy associated with the first and second processing delays.
Use of an immersion treatment system for vehicle bodies comprising a) at least one immersion basin (2; 102; 202) which can be filled with a treatment liquid, in which vehicle bodies to be treated (3; 103; 204) can be completely immersed; b) a conveyor system (4; 104; 206) which can move the vehicle bodies to be treated (3; 103; 204) to the immersion basin (2; 102; 202), put them completely into the interior of the immersion basin (2; 102; 202), take them out of the immersion basin (2; 102; 202) and move them away therefrom and which comprises at least one transport carriage (5; 105; 208) which comprises a securing device (29; 129; 212, 272) that can be rotated about an axis of rotation (24; 124; 262) and to which at least one vehicle body (3; 103; 204) may be secured; wherein c) the transport carriage (5; 105; 208) comprises a vertically traversable slide (21; 121; 256) on which a component (24; 124; 260) that defines the axis of rotation (24; 124; 262) is supported, such that altogether it is possible to achieve a movement sequence for the at least one vehicle body (3; 103; 204) which is a superposition of a horizontal linear movement, a vertical linear movement and a rotary movement about the axis of rotation (24; 124; 262); for the purpose of an immersion treatment of the at least one vehicle body, characterised in that the use consists of d) executing this movement sequence while the at least one vehicle body (3; 103; 204) is being passed through the at least one immersion basin (2; 102; 202). a) at least one immersion basin (2; 102; 202) which can be filled with a treatment liquid, in which vehicle bodies to be treated (3; 103; 204) can be completely immersed; b) a conveyor system (4; 104; 206) which can move the vehicle bodies to be treated (3; 103; 204) to the immersion basin (2; 102; 202), put them completely into the interior of the immersion basin (2; 102; 202), take them out of the immersion basin (2; 102; 202) and move them away therefrom and which comprises at least one transport carriage (5; 105; 208) which comprises a securing device (29; 129; 212, 272) that can be rotated about an axis of rotation (24; 124; 262) and to which at least one vehicle body (3; 103; 204) may be secured; c) the transport carriage (5; 105; 208) comprises a vertically traversable slide (21; 121; 256) on which a component (24; 124; 260) that defines the axis of rotation (24; 124; 262) is supported, such that altogether it is possible to achieve a movement sequence for the at least one vehicle body (3; 103; 204) which is a superposition of a horizontal linear movement, a vertical linear movement and a rotary movement about the axis of rotation (24; 124; 262); d) executing this movement sequence while the at least one vehicle body (3; 103; 204) is being passed through the at least one immersion basin (2; 102; 202).
A system for an aircraft, the system comprising: a gas turbine engine comprising a compressor section; and an engine bleed control system comprising: a multi-tap bleed array comprising a plurality of engine bleed taps (52A-52D) distributed axially between a plurality of stages of the compressor section, wherein each stage of the plurality of stages comprises a rotor blade and stator vane pair, the plurality of engine bleed taps comprises at least four bleed taps, and the plurality of engine bleed taps is located before a ninth stage of the plurality of stages of the compressor section; a plurality of valves (58A-58C) operable to extract bleed air from each of the engine bleed taps; a controller operable to selectively open and close each of the valves based on a bleed air demand and control delivery of the bleed air to an aircraft use; and a pneumatic bleed for anti-icing at least a nacelle inlet of the gas turbine engine, wherein the pneumatic bleed of the compressor is located downstream at a higher temperature point than the engine bleed taps. a gas turbine engine comprising a compressor section; and an engine bleed control system comprising: a multi-tap bleed array comprising a plurality of engine bleed taps (52A-52D) distributed axially between a plurality of stages of the compressor section, wherein each stage of the plurality of stages comprises a rotor blade and stator vane pair, the plurality of engine bleed taps comprises at least four bleed taps, and the plurality of engine bleed taps is located before a ninth stage of the plurality of stages of the compressor section; a plurality of valves (58A-58C) operable to extract bleed air from each of the engine bleed taps; a controller operable to selectively open and close each of the valves based on a bleed air demand and control delivery of the bleed air to an aircraft use; and a pneumatic bleed for anti-icing at least a nacelle inlet of the gas turbine engine, wherein the pneumatic bleed of the compressor is located downstream at a higher temperature point than the engine bleed taps. a multi-tap bleed array comprising a plurality of engine bleed taps (52A-52D) distributed axially between a plurality of stages of the compressor section, wherein each stage of the plurality of stages comprises a rotor blade and stator vane pair, the plurality of engine bleed taps comprises at least four bleed taps, and the plurality of engine bleed taps is located before a ninth stage of the plurality of stages of the compressor section; a plurality of valves (58A-58C) operable to extract bleed air from each of the engine bleed taps; a controller operable to selectively open and close each of the valves based on a bleed air demand and control delivery of the bleed air to an aircraft use; and a pneumatic bleed for anti-icing at least a nacelle inlet of the gas turbine engine, wherein the pneumatic bleed of the compressor is located downstream at a higher temperature point than the engine bleed taps.
A process of producing a near-net shape component, the process comprising: forming, by additive manufacturing, a consolidation shell comprising a first and a second material, the consolidation shell defining an interior space having a geometry corresponding to a component; providing a metallic powder to the interior space; removing gas from the interior space; consolidating the metallic powder in the consolidation shell under sufficient heat and pressure to form the near-net shape component, wherein the near-net shape component is a compressor blade; and removing said second material by a physical or chemical means to form channels in the component. forming, by additive manufacturing, a consolidation shell comprising a first and a second material, the consolidation shell defining an interior space having a geometry corresponding to a component; providing a metallic powder to the interior space; removing gas from the interior space; consolidating the metallic powder in the consolidation shell under sufficient heat and pressure to form the near-net shape component, wherein the near-net shape component is a compressor blade; and removing said second material by a physical or chemical means to form channels in the component.
Method for activating a camera monitor system as a mirror replacement system on a vehicle, in particular on a utility vehicle, with at least one camera which is mounted on both sides or on one side of the outside of the vehicle, directed rearwards when viewed in the longitudinal direction of the vehicle, by means of a camera mount, wherein the camera mount has a controllable actuating device with which the camera which is directed rearwards is moved into different distance positions with respect to the vehicle in accordance with the situation, characterized in that the orientation of the camera is also adjustable in a controlled fashion in such a way that when the camera position is adjusted automatically and coupled the camera orientation is also correspondingly suitably adjusted if the camera is moved from an operational standard position for a normal driving operation into a different viewing position.
A method for measuring concentration of a breath analyte, the method comprising: receiving gas exhaled by a user in a breath volume of a handheld device; receiving, from_an audio sensor of the handheld device, a breath signal that varies in response to perturbations in gas pressure in the breath volume; identifying a sample time based on the breath signal, wherein identifying the sample time comprises: detecting the breath signal increasing above a breath-detection threshold; identifying a maximum in the breath signal after the breath signal increased above the breath-detection threshold; and detecting the breath signal dropping below an end-of-breath threshold after the maximum in the breath signal, wherein the sample time is when the breath signal drops below the end-of-breath threshold; receiving, from an analyte sensor of the handheld device, an analyte signal that varies in response to a concentration of the breath analyte present in a sampling volume; and measuring the concentration of the breath analyte in the sampling volume at the sample time based on the analyte signal. receiving gas exhaled by a user in a breath volume of a handheld device; receiving, from_an audio sensor of the handheld device, a breath signal that varies in response to perturbations in gas pressure in the breath volume; identifying a sample time based on the breath signal, wherein identifying the sample time comprises: detecting the breath signal increasing above a breath-detection threshold; identifying a maximum in the breath signal after the breath signal increased above the breath-detection threshold; and detecting the breath signal dropping below an end-of-breath threshold after the maximum in the breath signal, wherein the sample time is when the breath signal drops below the end-of-breath threshold; detecting the breath signal increasing above a breath-detection threshold; identifying a maximum in the breath signal after the breath signal increased above the breath-detection threshold; and detecting the breath signal dropping below an end-of-breath threshold after the maximum in the breath signal, wherein the sample time is when the breath signal drops below the end-of-breath threshold; receiving, from an analyte sensor of the handheld device, an analyte signal that varies in response to a concentration of the breath analyte present in a sampling volume; and measuring the concentration of the breath analyte in the sampling volume at the sample time based on the analyte signal.
Method for actuating a fluid working machine, the fluid working machine comprising at least one working chamber with a cyclically varying volume, a high pressure fluid connection, a low pressure fluid connection, at least an electrically actuated valve for selectively connecting the high pressure fluid connection and/or the low pressure fluid connection with the working chamber, wherein the actuation of the at least one electrically actuated valve depends on the fluid flow requirement and/or the mechanical power requirement, wherein the actuation of the at least one electrically actuated valve depends additionally at least at times on the electrical power requirement for actuating the at least one electrically actuated valve, characterised in that at least an upper electrical power limit is considered in a way that the limit is not exceeded.
A pellet-shaped composition for medical use which comprises 1 to 120 part(s) by weight of a plasticizer and 0.01 to 5 part(s) by weight of a (meth)acrylate copolymer containing a hydrophobic (meth)acrylate unit and a hydrophilic (meth)acrylate unit to 100 parts by weight of a polyvinyl chloride resin, wherein number-average molecular weight of the (meth)acrylate copolymer is 7,000 to 50,000, and the hydrophobic (meth)acrylate unit and the hydrophilic (meth)acrylate unit are copolymerized in a molar ratio of 55 - 80 to 20 - 45.
Connection adapter for connecting an internal fluid line (2, 42) of a vacuum infusion device, wherein the connection adapter has a support side and a connection side, wherein the support side has two support legs (6, 8) for placing on a fluid line (2, 42), which enclose an intermediate space which widens outwards in a direction facing away from the connection side, wherein the connection side has a hollow cylindrical section with a connection opening facing away from the support side, and a junction opening projecting into the support side and a fluid connection between the connection opening and the junction opening, characterised in that the hollow cylindrical section has an oval cross-section. wherein the connection adapter has a support side and a connection side, wherein the support side has two support legs (6, 8) for placing on a fluid line (2, 42), which enclose an intermediate space which widens outwards in a direction facing away from the connection side, wherein the connection side has a hollow cylindrical section with a connection opening facing away from the support side, and a junction opening projecting into the support side and a fluid connection between the connection opening and the junction opening, characterised in that the hollow cylindrical section has an oval cross-section.
A pigment composition comprising a plurality of organic pigments P1 and P2 as essential components and optionally further comprising a third pigment P3, the first pigment P1 being at least one phthalocyanine pigment, the second pigment P2 being at least one pigment selected from perylene pigments, and wherein the perylene pigment is C.I. Pigment Red 149 and/or C.I. Pigment Red 179, and each of the organic pigments P1, P2, and P3 being a pigment which contains no halogen in its molecular structure.
A thermal printer comprising: a feed unit (26, 27) that feeds a print medium; a thermal head having a plurality of heating elements for printing print data on a print area of the print medium fed by the feed unit (26, 27); an inspection unit that inspects whether or not there is an electric disconnection in the heating elements; characterized in that the thermal printer comprises a control unit configured to control an operation of the inspection unit, wherein the control unit is configured to cause the inspection unit to perform the inspection when a predetermined number of labels are printed, and the control unit is configured to change the predetermined number of labels depending on contents of the print data, and the control unit is configured to reduce the predetermined number of labels when the print data contains an optical identification code, compared to when the print data does not contain the optical identification code. a feed unit (26, 27) that feeds a print medium; a thermal head having a plurality of heating elements for printing print data on a print area of the print medium fed by the feed unit (26, 27); an inspection unit that inspects whether or not there is an electric disconnection in the heating elements; characterized in that the thermal printer comprises a control unit configured to control an operation of the inspection unit, wherein the control unit is configured to cause the inspection unit to perform the inspection when a predetermined number of labels are printed, and the control unit is configured to change the predetermined number of labels depending on contents of the print data, and the control unit is configured to reduce the predetermined number of labels when the print data contains an optical identification code, compared to when the print data does not contain the optical identification code.
Crumbles comprising at least one calcium carbonate-containing material, the crumbles a)having solids content of 78.0 wt.-% to 90.0 wt.-%, based on the total weight of the crumbles, b)comprising particles of the at least one calcium carbonate-containing material having a i) weight particle size d 75 of 0.7 to 3.0 μm, ii) weight median particle size d 50 of 0.5 to 2.0 μm, iii) weight particle size d 25 of 0.1 to 1.0 μm, as measured according to the sedimentation method, and c) comprising particles of the at least one calcium carbonate-containing material having a BET specific surface area of from 4.0 to 12.0 m 2 /g, measured by nitrogen gas adsorption using the BET isotherm (ISO 9277:2010) wherein the crumbles are free of dispersing agents. a)having solids content of 78.0 wt.-% to 90.0 wt.-%, based on the total weight of the crumbles, b)comprising particles of the at least one calcium carbonate-containing material having a i) weight particle size d 75 of 0.7 to 3.0 μm, ii) weight median particle size d 50 of 0.5 to 2.0 μm, iii) weight particle size d 25 of 0.1 to 1.0 μm, as measured according to the sedimentation method, and i) weight particle size d 75 of 0.7 to 3.0 μm, ii) weight median particle size d 50 of 0.5 to 2.0 μm, iii) weight particle size d 25 of 0.1 to 1.0 μm, as measured according to the sedimentation method, and c) comprising particles of the at least one calcium carbonate-containing material having a BET specific surface area of from 4.0 to 12.0 m 2 /g, measured by nitrogen gas adsorption using the BET isotherm (ISO 9277:2010)
A method of transmitting a reference signal by a base station comprising N antennas in a wireless communication system, the method comprising: generating a plurality of reference signals for channel measurement, wherein the plurality of reference signals include a first type channel state information reference signal, CSI-RS, and a second type CSI-RS, wherein the first type CSI-RS and the second type CSI-RS have a different pattern; reporting a sub-band size for the first type and second type CSI-RSs, wherein each sub-band comprises a group of consecutive resource blocks; and transmitting the first type and second type CSI-RSs for channel measurement, wherein the first type and second type CSI-RSs are transmitted using different duty cycles. generating a plurality of reference signals for channel measurement, wherein the plurality of reference signals include a first type channel state information reference signal, CSI-RS, and a second type CSI-RS, wherein the first type CSI-RS and the second type CSI-RS have a different pattern; reporting a sub-band size for the first type and second type CSI-RSs, wherein each sub-band comprises a group of consecutive resource blocks; and transmitting the first type and second type CSI-RSs for channel measurement, wherein the first type and second type CSI-RSs are transmitted using different duty cycles.