mhurhangee/ep-ind-claims huggingface dataset:
A sealed fabric, characterized in that the fabric areal weight in terms of g/m 2, the weight of hydrogel coating per unit area in terms of mg/cm 2, and the swelling in % of the hydrogel, each represented in an orthogonal coordinate system by X, Y, Z coordinates respectively, are present on edges and in the inner space of a polyhedron having the following vertices: point A (50, 6, 700), point B (50, 6, 800), point C (50, 4, 800), point D (50, 4, 700), point E (70, 6.2, 459), point F (70, 6.2, 965), point G (70, 1.6, 965), point H (70, 1.6, 459), point I (72, 4.9, 826), point J (72, 4.9, 1028), point K (72, 1.7, 1028), and point L (72, 1.7, 826).
A thermal load estimating device comprising: an actual-power consumption receiver configured to receive actual power consumption of various types of devices installed in a room; a thermal-load pattern storage configured to store therein a thermal load pattern of the room, the thermal load pattern representing a time-series maximum thermal load based on least one of a human-body thermal load, a lighting thermal load, a general-device thermal load, and an insolation load in the room; a power-consumption storage configured to store therein maximum power consumption that is a total value of respective maximum values of the power consumption of the various types of devices in the room; and a thermal-load estimator configured to estimate a thermal-load value of the room at given time on the basis of the actual power consumption associated with the thermal load in the room, the thermal-load pattern, and the maximum power consumption associated with the thermal load pattern, and an estimated thermal-load value transmitter configured to transmit, to an air conditioning control device for the room, the estimated thermal-load value of the room from the thermal-load estimator. an actual-power consumption receiver configured to receive actual power consumption of various types of devices installed in a room; a thermal-load pattern storage configured to store therein a thermal load pattern of the room, the thermal load pattern representing a time-series maximum thermal load based on least one of a human-body thermal load, a lighting thermal load, a general-device thermal load, and an insolation load in the room; a power-consumption storage configured to store therein maximum power consumption that is a total value of respective maximum values of the power consumption of the various types of devices in the room; and a thermal-load estimator configured to estimate a thermal-load value of the room at given time on the basis of the actual power consumption associated with the thermal load in the room, the thermal-load pattern, and the maximum power consumption associated with the thermal load pattern, and an estimated thermal-load value transmitter configured to transmit, to an air conditioning control device for the room, the estimated thermal-load value of the room from the thermal-load estimator.
A fluid monitoring assembly (80, 120) comprising: a segment (84, 132) of tubing comprising a wall defining a lumen (102, 140) extending along an axis and through which the fluid passes, the segment (84, 132) of tubing comprising a nipple that projects from the wall; a housing (86, 128) having first and second portions (86a, 86b, 128a, 128b) connected to one another at a hinge (88, 130), the housing (86, 128) defining an interior portion configured to hold the segment (84, 132) of tubing; a pressure sensor (82, 124) having a pressure sensing end (83, 142) in contact with the end of the nipple, wherein the fluid pressure within the lumen (102, 140) is transmitted through the wall to the pressure sensing end (83, 142); and a fastener (90, 134, 136) configured to hold the first and second housing portions (86a, 86b, 128a, 128b) in a closed state; and characterized in that the assembly (80, 120) further comprises one or more pinch valves disposed on the housing (86, 128) configured to selectively pinch or close the segment (84, 132). a segment (84, 132) of tubing comprising a wall defining a lumen (102, 140) extending along an axis and through which the fluid passes, the segment (84, 132) of tubing comprising a nipple that projects from the wall; a housing (86, 128) having first and second portions (86a, 86b, 128a, 128b) connected to one another at a hinge (88, 130), the housing (86, 128) defining an interior portion configured to hold the segment (84, 132) of tubing; a pressure sensor (82, 124) having a pressure sensing end (83, 142) in contact with the end of the nipple, wherein the fluid pressure within the lumen (102, 140) is transmitted through the wall to the pressure sensing end (83, 142); and a fastener (90, 134, 136) configured to hold the first and second housing portions (86a, 86b, 128a, 128b) in a closed state; and characterized in that the assembly (80, 120) further comprises one or more pinch valves disposed on the housing (86, 128) configured to selectively pinch or close the segment (84, 132).
An agricultural square baler comprising: - a baling chamber, - a plunger movably received in the baling chamber along the longitudinal axis of the baling chamber, - a feed inlet to the baling chamber, through which crop can be conveyed into the baling chamber to be compressed there by the plunger, - a plunger drive connected to the plunger provided to drive the plunger from a rotational movement into a linear reciprocal movement, the plunger drive being connected to the plunger by at least one joint element (11, 29) - at least one connecting rod longitudinally delimited by a first end and a second end opposing the first end provided to transfer the rotational movement of the plunger drive into the linear reciprocal movement of the plunger, each of the ends (8,9) of the connecting rod having a first surface (13, 31), and - a constraining element (12, 30) for rigidly attaching one end (8, 9) of the connecting rod with the joint element (11, 29) characterized in that an attachment (15,17,40) connects the constraining element (12,30) with the connecting rod at an attachment location away from the first (13,31) surface of the connecting rod. - a baling chamber, - a plunger movably received in the baling chamber along the longitudinal axis of the baling chamber, - a feed inlet to the baling chamber, through which crop can be conveyed into the baling chamber to be compressed there by the plunger, - a plunger drive connected to the plunger provided to drive the plunger from a rotational movement into a linear reciprocal movement, the plunger drive being connected to the plunger by at least one joint element (11, 29) - at least one connecting rod longitudinally delimited by a first end and a second end opposing the first end provided to transfer the rotational movement of the plunger drive into the linear reciprocal movement of the plunger, each of the ends (8,9) of the connecting rod having a first surface (13, 31), and - a constraining element (12, 30) for rigidly attaching one end (8, 9) of the connecting rod with the joint element (11, 29)
A gas turbine engine comprising: a high spool, the high spool comprising a high pressure turbine coupled by a high pressure shaft to a high pressure compressor; an intermediate spool, the intermediate spool comprising an intermediate pressure turbine coupled by an intermediate pressure shaft to both a ducted fan and an intermediate pressure compressor; a low spool, the low spool comprising a power turbine coupled by a low pressure shaft to an open-rotor propeller; and a variable area turbine section positioned between the intermediate pressure turbine and the power turbine, wherein the variable area turbine section varies an expansion ratio across the intermediate pressure turbine to control rotational speeds of the low spool and the intermediate spool. a high spool, the high spool comprising a high pressure turbine coupled by a high pressure shaft to a high pressure compressor; an intermediate spool, the intermediate spool comprising an intermediate pressure turbine coupled by an intermediate pressure shaft to both a ducted fan and an intermediate pressure compressor; a low spool, the low spool comprising a power turbine coupled by a low pressure shaft to an open-rotor propeller; and a variable area turbine section positioned between the intermediate pressure turbine and the power turbine, wherein the variable area turbine section varies an expansion ratio across the intermediate pressure turbine to control rotational speeds of the low spool and the intermediate spool.
A transmitter comprising: a time-division-multiplexer configured to perform a multiplexing, in time domain, of a plurality of signal streams of a plurality of channels including a first channel and a second channel; the transmitter being characterized by a controller configured to control the time-division-multiplexer to assign in time domain, between a time instance at which transmitting power of the multiplexed signal varies and a time instance of at least one symbol of a first signal stream of the first channel, a part of a signal stream of the second channel having a longer code length than a code length of the first signal stream of the first channel, such that before and after the time instance at which transmitting power of the multiplexed signal varies any symbol of the first signal stream of the first channel being arranged apart from the time instance at which transmitting power of the multiplexed signal varies a time-division-multiplexer configured to perform a multiplexing, in time domain, of a plurality of signal streams of a plurality of channels including a first channel and a second channel; a controller configured to control the time-division-multiplexer to assign in time domain, between a time instance at which transmitting power of the multiplexed signal varies and a time instance of at least one symbol of a first signal stream of the first channel, a part of a signal stream of the second channel having a longer code length than a code length of the first signal stream of the first channel, such that before and after the time instance at which transmitting power of the multiplexed signal varies any symbol of the first signal stream of the first channel being arranged apart from the time instance at which transmitting power of the multiplexed signal varies
A process comprising: a) providing one or more highly oriented fibers, each of said highly oriented fibers having a tenacity of greater than 27 g/denier and having at least some exposed surface areas that are at least partially free of a fiber surface finish; b) treating the exposed fiber surfaces under conditions effective to enhance the surface energy of the fiber surfaces, said conditions comprising corona treating or plasma treating; and c) applying a protective coating onto at least a portion of the treated fiber surfaces to thereby form coated, treated fibers, wherein the protective coating comprises 3% by weight or less based on the weight of the fiber plus the weight of the protective coating, and wherein the protective coating is applied to individual fibers. a) providing one or more highly oriented fibers, each of said highly oriented fibers having a tenacity of greater than 27 g/denier and having at least some exposed surface areas that are at least partially free of a fiber surface finish; b) treating the exposed fiber surfaces under conditions effective to enhance the surface energy of the fiber surfaces, said conditions comprising corona treating or plasma treating; and c) applying a protective coating onto at least a portion of the treated fiber surfaces to thereby form coated, treated fibers, wherein the protective coating comprises 3% by weight or less based on the weight of the fiber plus the weight of the protective coating, and wherein the protective coating is applied to individual fibers.
A composition comprising: a sheared antifoam solution with a mean particle size from about 0.01 microns to about 0.025 microns and a maximum particle size of less than about 0.5 microns, wherein the sheared antifoam solution comprises antifoam solution comprising an antifoam and a base stock; wherein the antifoam solution comprises: from about 40 wt% to about 60 wt% antifoam, the antifoam being selected from the group consisting of: organo-modified siloxane, silicone, flurosilicone, polyacrylate and combinations thereof; and from about 40 wt% to about 60 wt% base stock, the base stock being an alkylated naphthalene. a sheared antifoam solution with a mean particle size from about 0.01 microns to about 0.025 microns and a maximum particle size of less than about 0.5 microns, wherein the sheared antifoam solution comprises antifoam solution comprising an antifoam and a base stock; wherein the antifoam solution comprises: from about 40 wt% to about 60 wt% antifoam, the antifoam being selected from the group consisting of: organo-modified siloxane, silicone, flurosilicone, polyacrylate and combinations thereof; and from about 40 wt% to about 60 wt% base stock, the base stock being an alkylated naphthalene. from about 40 wt% to about 60 wt% antifoam, the antifoam being selected from the group consisting of: organo-modified siloxane, silicone, flurosilicone, polyacrylate and combinations thereof; and from about 40 wt% to about 60 wt% base stock, the base stock being an alkylated naphthalene.
A sheetlike composite, comprising as a layer sequence in a direction from an outer surface of the sheetlike composite to an inner surface of the sheetlike composite a) an outer polymer layer, b) a colour application, c) a carrier layer, and d) a barrier layer; wherein the outer polymer layer is characterised by a density in a range from 920 to 925 kg/m 3, wherein the density is measured in accordance with the standard DIN EN ISO 1183-1:2012-04, method B and applying a liquid pycnometer, wherein the sample to be studied is conditioned in accordance with DIN EN ISO 1872-1:199-10, distilled water is used as immersion liquid, the test temperature is 23 °C and no buoyancy correction is applied; wherein the outer polymer layer is further characterised by a melting temperature according to the test method described herein in the range from 107.5 to 115 °C; wherein the outer polymer layer comprises at least 50 wt.-%, based on the outer polymer layer, of at least one polyolefin. a) an outer polymer layer, b) a colour application, c) a carrier layer, and d) a barrier layer; wherein the outer polymer layer is characterised by a density in a range from 920 to 925 kg/m 3, wherein the density is measured in accordance with the standard DIN EN ISO 1183-1:2012-04, method B and applying a liquid pycnometer, wherein the sample to be studied is conditioned in accordance with DIN EN ISO 1872-1:199-10, distilled water is used as immersion liquid, the test temperature is 23 °C and no buoyancy correction is applied; wherein the outer polymer layer is further characterised by a melting temperature according to the test method described herein in the range from 107.5 to 115 °C; wherein the outer polymer layer comprises at least 50 wt.-%, based on the outer polymer layer, of at least one polyolefin.
An apparatus for ultrasonic welding a web of indefinite length, comprising: a rotatable tool roll having a first longitudinal axis of rotation, wherein the rotatable tool roll is rotatable ultrasonic welding horn; a source of ultrasonic energy coupled to the rotatable ultrasonic welding horn; a mounting system (100, 300, 1910) for supporting the rotatable tool roll so that the rotatable tool roll can rotate about the first longitudinal axis and such that the rotatable tool roll has only two additional degrees of freedom, the first additional degree of freedom being translational motion in a direction perpendicular to the first longitudinal axis, and the second additional degree of freedom being rotational motion about a pivot through a second longitudinal axis that is both perpendicular to the first longitudinal axis and the direction of the first additional degree of freedom; an anvil roll (21, 1902) mounted adjacent to the mounting system (100, 300, 1910); and a force generator (61, 1918) positioned so as to apply force to the mounting system (100, 300, 1910) so as to urge the rotatable ultrasonic welding horn towards the anvil roll (21, 1902). a rotatable tool roll having a first longitudinal axis of rotation, wherein the rotatable tool roll is rotatable ultrasonic welding horn; a source of ultrasonic energy coupled to the rotatable ultrasonic welding horn; a mounting system (100, 300, 1910) for supporting the rotatable tool roll so that the rotatable tool roll can rotate about the first longitudinal axis and such that the rotatable tool roll has only two additional degrees of freedom, the first additional degree of freedom being translational motion in a direction perpendicular to the first longitudinal axis, and the second additional degree of freedom being rotational motion about a pivot through a second longitudinal axis that is both perpendicular to the first longitudinal axis and the direction of the first additional degree of freedom; an anvil roll (21, 1902) mounted adjacent to the mounting system (100, 300, 1910); and a force generator (61, 1918) positioned so as to apply force to the mounting system (100, 300, 1910) so as to urge the rotatable ultrasonic welding horn towards the anvil roll (21, 1902).
Agitator device, in particular draft tube agitator device, with at least one stirring unit (12a; 12b) which is rotatable around a rotary axis, which is configured for conveying a fluid in an axial conveying direction (16a; 16b) and which comprises at least one rotor blade element, the rotor blade element comprising an inner edge that faces toward the rotary axis and an outer edge that faces away from the rotary axis and is longer than the inner edge, the rotor blade element comprising at least one first region, which is situated in a blade plane and is at least substantially planar, and comprises a second region, which is curved out of the blade plane, characterised in that the projection of the rotor blade element onto a plane that is perpendicular to the rotary axis has an at least substantially circular-arc-shaped outer contour and that the inner edge is realized at least substantially in an ellipse-arc shape. the rotor blade element comprising an inner edge that faces toward the rotary axis and an outer edge that faces away from the rotary axis and is longer than the inner edge, the rotor blade element comprising at least one first region, which is situated in a blade plane and is at least substantially planar, and comprises a second region, which is curved out of the blade plane, characterised in that the projection of the rotor blade element onto a plane that is perpendicular to the rotary axis has an at least substantially circular-arc-shaped outer contour and that the inner edge is realized at least substantially in an ellipse-arc shape.
A method for separating a protein of interest from a feedstream comprising milk from a transgenic mammal, by a depth filtration process that separates a protein of interest from said feedstream on the basis of particulate size, wherein the milk containing is blended 1:1 with 3.8 M Ammonium sulfate prior to performing depth filtration.
Apparatus comprising: a battery encapsulated within a sealed enclosure; an electronic device encapsulated within the sealed enclosure, wherein the electronic device is in a deactivated state; a power control circuit encapsulated within the sealed enclosure; and a loop of conductive medium connected to the power control circuit, wherein at least a portion of the loop of conductive medium passes out of and back into the sealed enclosure, and wherein, in response to severing of the at least portion of the loop of conductive medium which is outside of the sealed enclosure, the power control circuit is configured to cause activation of the electronic device, characterised in that: the power control circuit comprises a latching mechanism such that once activation of the electronic device is caused, the electronic device remains activated, and/or in that the power control circuit comprises a latching mechanism such that once activation of the electronic device is caused, the electronic device remains activated even if the severing of the loop of conductive medium is reversed. a battery encapsulated within a sealed enclosure; an electronic device encapsulated within the sealed enclosure, wherein the electronic device is in a deactivated state; a power control circuit encapsulated within the sealed enclosure; and a loop of conductive medium connected to the power control circuit, wherein at least a portion of the loop of conductive medium passes out of and back into the sealed enclosure, and wherein, in response to severing of the at least portion of the loop of conductive medium which is outside of the sealed enclosure, the power control circuit is configured to cause activation of the electronic device, characterised in that: the power control circuit comprises a latching mechanism such that once activation of the electronic device is caused, the electronic device remains activated, and/or in that the power control circuit comprises a latching mechanism such that once activation of the electronic device is caused, the electronic device remains activated even if the severing of the loop of conductive medium is reversed. the power control circuit comprises a latching mechanism such that once activation of the electronic device is caused, the electronic device remains activated, and/or in that the power control circuit comprises a latching mechanism such that once activation of the electronic device is caused, the electronic device remains activated even if the severing of the loop of conductive medium is reversed.
A method comprising: while a lag compressor is in an ON state, determining whether an OFF criterion is satisfied to transition the lag compressor of a tandem set of scroll compressors from the ON state to an OFF state, wherein the tandem set of scroll compressors comprises a lead compressor; initiating at least one process in response to the OFF criterion being satisfied; and maintaining the lag compressor in the ON state for a predetermined period subsequent to the OFF criterion being satisfied, wherein the at least one process comprises at least one of overriding a called for opening percentage of the lead compressor including operating the lead compressor at a maximum level, wherein the maximum level is a fully-loaded opening percentage of the lead compressor, overriding a motor overload protection method, wherein the motor overload protection method protects motors of the lead compressor and the lag compressor, and overriding a proportional integral derivative method to reduce a speed of a condenser fan, wherein the PID method controls the speed of the condenser fan. while a lag compressor is in an ON state, determining whether an OFF criterion is satisfied to transition the lag compressor of a tandem set of scroll compressors from the ON state to an OFF state, wherein the tandem set of scroll compressors comprises a lead compressor; initiating at least one process in response to the OFF criterion being satisfied; and maintaining the lag compressor in the ON state for a predetermined period subsequent to the OFF criterion being satisfied, wherein the at least one process comprises at least one of overriding a called for opening percentage of the lead compressor including operating the lead compressor at a maximum level, wherein the maximum level is a fully-loaded opening percentage of the lead compressor, overriding a motor overload protection method, wherein the motor overload protection method protects motors of the lead compressor and the lag compressor, and overriding a proportional integral derivative method to reduce a speed of a condenser fan, wherein the PID method controls the speed of the condenser fan.