mhurhangee/ep-ind-claims huggingface dataset:
An area temperature control structure comprising: a structure main body, which is made of an isotropic thermal conductive material, including a first area and a second area of which surface temperatures are controlled to have different temperatures; a first annular medium path and a second annular medium path formed within the first and second areas (41, 42), respectively; and an anisotropic thermal conductive layer provided within the structure main body, wherein a thermal conductivity of the anisotropic thermal conductive layer in an arrangement direction of the first and second areas (41, 42) is smaller than a thermal conductivity of the anisotropic thermal conductive layer in a direction intersecting with the arrangement direction of the first and second areas (41, 42), characterized in that the anisotropic thermal conductive layer has a T-shaped cross section, the T-shaped cross section is orthogonal to a flowing direction of a heat exchange medium in the first annular medium path and the second annular medium path, a vertical portion of the T-shaped cross section is positioned between the first annular medium path and the second annular medium path, and both ends of a horizontal portion of the T-shaped cross section are positioned on upper portions of the first and second annular medium paths (43, 44), respectively, and the vertical portion and the horizontal portion of the anisotropic thermal conductive layer are all made of an anisotropic thermal conductive material. a structure main body, which is made of an isotropic thermal conductive material, including a first area and a second area of which surface temperatures are controlled to have different temperatures; a first annular medium path and a second annular medium path formed within the first and second areas (41, 42), respectively; and an anisotropic thermal conductive layer provided within the structure main body, wherein a thermal conductivity of the anisotropic thermal conductive layer in an arrangement direction of the first and second areas (41, 42) is smaller than a thermal conductivity of the anisotropic thermal conductive layer in a direction intersecting with the arrangement direction of the first and second areas (41, 42), characterized in that the anisotropic thermal conductive layer has a T-shaped cross section, the T-shaped cross section is orthogonal to a flowing direction of a heat exchange medium in the first annular medium path and the second annular medium path, a vertical portion of the T-shaped cross section is positioned between the first annular medium path and the second annular medium path, and both ends of a horizontal portion of the T-shaped cross section are positioned on upper portions of the first and second annular medium paths (43, 44), respectively, and the vertical portion and the horizontal portion of the anisotropic thermal conductive layer are all made of an anisotropic thermal conductive material.
Door handle assembly of a vehicle door, having a handle support which can be fastened to a vehicle door, a handle which is mounted on the handle support and in the unused position is arranged to extend in strake-flush manner with an outer contour of the vehicle door, and which is designed to be movable into an actuating position for actuation by an operator, having a first lever mechanism which is motion-coupled to a first longitudinal end of the handle, and a second lever mechanism which is motion-coupled to a second longitudinal end of the handle, wherein in the actuating position the handle is offset parallel relative to the unused position and arranged to protrude above the outer contour of the vehicle door and can be actuated by the operator to open the vehicle door, and wherein the first lever mechanism has a first swivel axis, which is arranged on the handle support, wherein the first lever mechanism has a first joint axis, which is arranged on the handle, and the second lever mechanism has a second joint axis, which is motion-coupled to the handle, and a second swivel axis which is arranged on the support and is motion-coupled to the first lever mechanism via a coupling linkage, wherein the first swivel axis or the second swivel axis is motor-driven, wherein the first lever mechanism has a swivel lever element with a first swivel arm and a second swivel arm, wherein the first swivel arm is connected in articulated manner to the first joint axis and the second swivel arm is connected in articulated manner to the coupling linkage, and the second lever mechanism has a movement lever which is mounted so as to be swivellable on the second swivel axis, characterized in that the movement lever is motion-coupled to the coupling linkage via the second joint axis. wherein in the actuating position the handle is offset parallel relative to the unused position and arranged to protrude above the outer contour of the vehicle door and can be actuated by the operator to open the vehicle door, and wherein the first lever mechanism has a first swivel axis, which is arranged on the handle support, wherein the first lever mechanism has a first joint axis, which is arranged on the handle, and the second lever mechanism has a second joint axis, which is motion-coupled to the handle, and a second swivel axis which is arranged on the support and is motion-coupled to the first lever mechanism via a coupling linkage, wherein the first swivel axis or the second swivel axis is motor-driven, wherein the first lever mechanism has a swivel lever element with a first swivel arm and a second swivel arm, wherein the first swivel arm is connected in articulated manner to the first joint axis and the second swivel arm is connected in articulated manner to the coupling linkage, and the second lever mechanism has a movement lever which is mounted so as to be swivellable on the second swivel axis, characterized in that the movement lever is motion-coupled to the coupling linkage via the second joint axis.
A wireless communication method, comprising: receiving, by a terminal device from a network device, trigger signaling for triggering an aperiodic Sounding Reference Signal, SRS; determining, by the terminal device, an aperiodic SRS type from a plurality of aperiodic SRS types of the aperiodic SRS according to the trigger signaling, wherein the plurality of aperiodic SRS types comprise a first aperiodic SRS type and a second aperiodic SRS type supported by the terminal device, wherein the first aperiodic SRS type is used to determine at least one of a transmitting beam for an uplink signal or a receiving beam of the network device for an uplink signal and the second aperiodic SRS type is used to obtain scheduling information for an uplink signal; determining, by the terminal device according to the determined aperiodic SRS type, at least one of a resource or a transmission scheme for transmitting the aperiodic SRS; and transmitting, by the terminal device, the aperiodic SRS to the network device based on at least one of a determined resource or a determined transmission scheme. receiving, by a terminal device from a network device, trigger signaling for triggering an aperiodic Sounding Reference Signal, SRS; determining, by the terminal device, an aperiodic SRS type from a plurality of aperiodic SRS types of the aperiodic SRS according to the trigger signaling, wherein the plurality of aperiodic SRS types comprise a first aperiodic SRS type and a second aperiodic SRS type supported by the terminal device, wherein the first aperiodic SRS type is used to determine at least one of a transmitting beam for an uplink signal or a receiving beam of the network device for an uplink signal and the second aperiodic SRS type is used to obtain scheduling information for an uplink signal; determining, by the terminal device according to the determined aperiodic SRS type, at least one of a resource or a transmission scheme for transmitting the aperiodic SRS; and transmitting, by the terminal device, the aperiodic SRS to the network device based on at least one of a determined resource or a determined transmission scheme.
A spreader system for discharging residue from an agricultural combine to a ground surface, comprising: a spreader operatively connected to a rear end of the agricultural combine, the spreader including: one or more impellers (100, 102); and a housing, said impellers (100, 102) being operatively connected to said housing for rotating therein, said housing having: an inlet for receiving a flow of residue; an outlet coupled to said housing for discharging the flow of residue; and one or more residue flow directors (224, 226) configured to alter the flow of residue from the agricultural combine, the spreader system being characterized in further comprising a direction detector configured to detect direction changes of the agricultural combine and to produce a signal representative of the direction change, said direction detector being one of a steering angle sensor and a positioning system, the spreader system being configured to alter the flow of residue dependent upon said signal. one or more impellers (100, 102); and a housing, said impellers (100, 102) being operatively connected to said housing for rotating therein, said housing having: an inlet for receiving a flow of residue; an outlet coupled to said housing for discharging the flow of residue; and one or more residue flow directors (224, 226) configured to alter the flow of residue from the agricultural combine, the spreader system being characterized in further comprising a direction detector configured to detect direction changes of the agricultural combine and to produce a signal representative of the direction change, said direction detector being one of a steering angle sensor and a positioning system, the spreader system being configured to alter the flow of residue dependent upon said signal. an inlet for receiving a flow of residue; an outlet coupled to said housing for discharging the flow of residue; and one or more residue flow directors (224, 226) configured to alter the flow of residue from the agricultural combine, the spreader system being characterized in further comprising a direction detector configured to detect direction changes of the agricultural combine and to produce a signal representative of the direction change, said direction detector being one of a steering angle sensor and a positioning system, the spreader system being configured to alter the flow of residue dependent upon said signal.
A flexible diffuser lighting fixture (40, 42, 50, 60), comprising: a manipulated flexible substrate (100, 200, 300); and an array of light emitting diodes (LEDs) coupled to the manipulated flexible substrate (100, 200, 300) and positioned within an array area of the manipulated flexible substrate (100, 200, 300), wherein the manipulated flexible substrate (100, 200, 300) is manipulated into a form that emits light from the array of LEDs through an optic area (110, 210) of the manipulated flexible substrate (100, 200, 300), wherein the optic area (110, 210) is integral with the manipulated flexible substrate (100, 200, 300) and comprises optical features, characterized in that a portion of the manipulated flexible substrate (100, 200, 300) is curled to form an inner tube and another portion of the manipulated flexible substrate (100, 200, 300) is further curled to form an outer tube, wherein the light emitted from the LEDs is diffused by the substrate material of the inner tube and by the substrate material of the outer tube, and the inner and outer tubes (410, 400) are formed from one continuous piece of material of the manipulated flexible substrate (100, 200, 300). a manipulated flexible substrate (100, 200, 300); and an array of light emitting diodes (LEDs) coupled to the manipulated flexible substrate (100, 200, 300) and positioned within an array area of the manipulated flexible substrate (100, 200, 300), wherein the manipulated flexible substrate (100, 200, 300) is manipulated into a form that emits light from the array of LEDs through an optic area (110, 210) of the manipulated flexible substrate (100, 200, 300), wherein the optic area (110, 210) is integral with the manipulated flexible substrate (100, 200, 300) and comprises optical features, characterized in that a portion of the manipulated flexible substrate (100, 200, 300) is curled to form an inner tube and another portion of the manipulated flexible substrate (100, 200, 300) is further curled to form an outer tube, wherein the light emitted from the LEDs is diffused by the substrate material of the inner tube and by the substrate material of the outer tube, and the inner and outer tubes (410, 400) are formed from one continuous piece of material of the manipulated flexible substrate (100, 200, 300).
Device for cleaning reusable casks comprising at least one treatment head, which is connected to a valve mechanism of a reusable cask, which valve mechanism comprises a first opening connected to a central pipe (2.2) extending in the interior (2.1) of the reusable cask, and a second opening connected directly to the interior (2.1) of the reusable cask, wherein the treatment head is designed for delivering fluids, in particular cleaning and flushing media into the interior (2.1) of the reusable cask which is to be cleaned and for removing the fluids from the reusable cask, wherein the treatment head is at least at times connected to a pump mechanism, by means of which the fluids are sucked out of the interior (2.1) of the reusable cask, wherein the first opening is connected by way of the treatment head to a device for providing different fluids, in particular cleaning and flushing media, characterised in that the pump device is connected via a short-circuit line to a valve device (11.2, 11.2') delivering the fluids, and that the pump device is connected on the pressure side to a valve arrangement comprising a large number of valves arranged in parallel for separating the individual fluids and/or cleaning and flushing media.
Use of a multitube reactor for production of (meth)acrolein and/or (meth)acrylic acid by oxidizing propylene, propane, isobutylene, isobutanol, or t-butanol with a molecular oxygen-containing gas, the multitube reactor comprising: a plurality of reaction tubes having a catalyst packed therein, and a shell equipped with the reaction tubes inside and into which a heat medium flowing outside the reaction tubes can be introduced, wherein the reaction tubes are selected from tubes having same nominal outside diameter and same nominal wall-thickness, an outside diameter tolerance of ±0.62%, and a wall-thickness tolerance of +19% to -0%.
An active superhydrophobic surface structure comprising: an outer elastomeric covering defining an exposed surface; a controlled group of one or more micro-electro-mechanical system - MEMS - actuators at least covered by the outer elastomeric covering; a controlled region of the exposed surface corresponding to the controlled group; and a plurality of vibration generators, wherein the controlled region has a superhydrophobic state in which the controlled region is textured and an ordinary state in which the controlled region is smooth, the active superhydrophobic surface structure configured to selectively transition the controlled region between the superhydrophobic state and the ordinary state by actuating the one or more MEMS actuators of the controlled group, characterised in that the vibration generators include an ultrasonic generator and/or ultrasonic transducer and are configured to shed ice, water, oil and/or dirt from the controlled region, wherein the controlled region in the superhydrophobic state is superhydrophobic and oleophobic, and wherein the controlled region in the ordinary state is hydrophobic. an outer elastomeric covering defining an exposed surface; a controlled group of one or more micro-electro-mechanical system - MEMS - actuators at least covered by the outer elastomeric covering; a controlled region of the exposed surface corresponding to the controlled group; and a plurality of vibration generators, wherein the controlled region has a superhydrophobic state in which the controlled region is textured and an ordinary state in which the controlled region is smooth, the active superhydrophobic surface structure configured to selectively transition the controlled region between the superhydrophobic state and the ordinary state by actuating the one or more MEMS actuators of the controlled group, characterised in that the vibration generators include an ultrasonic generator and/or ultrasonic transducer and are configured to shed ice, water, oil and/or dirt from the controlled region, wherein the controlled region in the superhydrophobic state is superhydrophobic and oleophobic, and wherein the controlled region in the ordinary state is hydrophobic.
A method of producing an inverse opal hydrogel with open, interconnected pores the method comprising: compressing a plurality of template porogen particles into a mold, wherein said template porogen particle is an ionically crosslinked polymer, a thermosensitive polymer, a thermoresponsive polymer, a pH-responsive polymer, or a photo-cleavable cleavable polymer; adding a composition comprising a polymer solution and a first plurality of cells to the interstitial space between template porogen particles in said mold to polymerize said template porogen particles; removing said template porogen particles; thereby producing an inverse opal hydrogel with open, interconnected pores, wherein said cells are encapsulated in said inverse opal hydrogel; and adding a second plurality of cells to said open, interconnected pores. compressing a plurality of template porogen particles into a mold, wherein said template porogen particle is an ionically crosslinked polymer, a thermosensitive polymer, a thermoresponsive polymer, a pH-responsive polymer, or a photo-cleavable cleavable polymer; adding a composition comprising a polymer solution and a first plurality of cells to the interstitial space between template porogen particles in said mold to polymerize said template porogen particles; removing said template porogen particles; thereby producing an inverse opal hydrogel with open, interconnected pores, wherein said cells are encapsulated in said inverse opal hydrogel; and adding a second plurality of cells to said open, interconnected pores.
A method of performing preventative maintenance on an auger in a tire filling mixing machine, comprising: (a) mixing a polyurethane isocyanate and a catalyst in a first mixer to form a virgin polyurethane; (b) grinding polyurethane core bits in a grinder, the grinder having an auger and a motor; (c) mixing the virgin polyurethane and the ground polyurethane core bits in a second mixer thereby forming a mixed flatproofing material; (d) injecting the mixed flatproofing material into a tire; and characterised by (e) measuring vibration of the auger; and (f) comparing the measured vibration of the auger to a predefined maximum vibration; and (g) removing the auger from the grinder if the measured vibration exceeds the pre-defined maximum vibration for a predefined period of time. (a) mixing a polyurethane isocyanate and a catalyst in a first mixer to form a virgin polyurethane; (b) grinding polyurethane core bits in a grinder, the grinder having an auger and a motor; (c) mixing the virgin polyurethane and the ground polyurethane core bits in a second mixer thereby forming a mixed flatproofing material; (d) injecting the mixed flatproofing material into a tire; and characterised by (e) measuring vibration of the auger; and (f) comparing the measured vibration of the auger to a predefined maximum vibration; and (g) removing the auger from the grinder if the measured vibration exceeds the pre-defined maximum vibration for a predefined period of time.
Applicator for cosmetic product, comprising a core extending along a longitudinal extension direction, called main direction, and a plurality of protrusions integral with the core, the protrusions extending from a proximal end connected to the core to a free distal end along a elongation direction so as to define a length and a height, wherein at least some of the protrusions have at least one helicoidal winding on at least a portion of their length, called helicoidal winding portion, the helicoidal winding having at least one turn, the length of the protrusions being greater than its height, the helicoidal winding portion winding in a helix around the direction of elongation and forming a path in which the cosmetic product can be stored.
Method for producing a vehicle tire with a tire carcass, tire beads with cores, a tire belt and a tread strip having the following steps: a) finishing of a tire carcass on a carcass drum, b) moving and positioning of the tire carcass onto a shaping drum, c) carrying out of the shaping operation, the tire carcass being expanded radially to the outside, d) turning up of the sidewalls (11, 12) which are arranged on the tire carcass by way of inflatable shaping bladders (5, 6), e) lateral moving of two pusher bells (1, 2) which are arranged laterally with respect to the tire carcass in the direction of the blank center, the pusher bells (1, 2) being mounted in each case on a movable first and second carriage (3, 4) and being moved in the axial direction in each case by way of a first and second drive (13, 14) via a coupling, f) lateral pressing of the pusher bells (1, 2) against the shaping bladders (5, 6), the shaping bladder (5, 6) being deformed and the turned up sidewalls (11, 12) being pressed against the outer sides of the shaped tire carcass, g) balancing of the pressing positions of the two pusher bells (1, 2) if a force imbalance is set on both sides of the shaping bladders (5, 6), the drives (13, 14) of the pusher bells (1, 2) being arranged on a freely mounted third carriage, all three carriages (3, 4, 17) being arranged on a rail system such that they can be freely moved together to the blank center, as a result of which the sidewalls (5, 6) on both sides of the tire carcass are connected uniformly to the outer side of the tire carcass, h) finishing of the tire blank by way of further steps. a) finishing of a tire carcass on a carcass drum, b) moving and positioning of the tire carcass onto a shaping drum, c) carrying out of the shaping operation, the tire carcass being expanded radially to the outside, d) turning up of the sidewalls (11, 12) which are arranged on the tire carcass by way of inflatable shaping bladders (5, 6), e) lateral moving of two pusher bells (1, 2) which are arranged laterally with respect to the tire carcass in the direction of the blank center, the pusher bells (1, 2) being mounted in each case on a movable first and second carriage (3, 4) and being moved in the axial direction in each case by way of a first and second drive (13, 14) via a coupling, f) lateral pressing of the pusher bells (1, 2) against the shaping bladders (5, 6), the shaping bladder (5, 6) being deformed and the turned up sidewalls (11, 12) being pressed against the outer sides of the shaped tire carcass, g) balancing of the pressing positions of the two pusher bells (1, 2) if a force imbalance is set on both sides of the shaping bladders (5, 6), the drives (13, 14) of the pusher bells (1, 2) being arranged on a freely mounted third carriage, all three carriages (3, 4, 17) being arranged on a rail system such that they can be freely moved together to the blank center, as a result of which the sidewalls (5, 6) on both sides of the tire carcass are connected uniformly to the outer side of the tire carcass, h) finishing of the tire blank by way of further steps.