mhurhangee/ep-ind-claims huggingface dataset:
A system for preparing a rolling assembly before usage, the rolling assembly having a rotation axis and comprising a wheel and a tire, the tire being mounted onto the wheel creating an inner cavity surrounded by a wheel internal surface and a tire internal surface, characterized in the system comprising a circulator for circulating a gas in the inner cavity, a dryer for drying the gas to be circulated in the inner cavity, an intake means for introducing the gas to be circulated in the inner cavity and an exhaust means for exhausting the gas circulated in the inner cavity and for guiding the gas exhausted to the circulator or to the dryer.
A high voltage wire harness for a vehicle, comprising: one or more conducting paths; a connecting member which is provided at a terminal position of the one or more conducting paths (19; 52); and a pipe-like exterior member which accommodates the one or more conducting paths (19; 52) and has a conductivity to serve as a shielding member, wherein the exterior member is formed of a shrinkable tube, and has a bent part formed in conformity with a wiring path of the one or more conducting paths during a shrink of the shrinkable tube, and the bent part maintains a shape of the wiring path of the one or more conducting paths after the shrink of the shrinkable tube, the shrinkable tube further has a watertight part which adhere on an outer surface of the connecting member with the shrink of the shrinkable tube. one or more conducting paths; a connecting member which is provided at a terminal position of the one or more conducting paths (19; 52); and a pipe-like exterior member which accommodates the one or more conducting paths (19; 52) and has a conductivity to serve as a shielding member,
A toothbrush comprising: a handle; a head at an end of the handle and having a thickness, a first surface, and an opposed second surface; tooth cleaning elements (18, 21, 23) extending outwardly from the first surface and having a length; and a tissue cleanser on the second surface having a height; wherein a head height comprising the thickness of the head, the length of the tooth cleaning elements, and the height of the tissue cleanser is less than 17.7 mm; characterised in that the height of the tissue cleanser is approximately.5 mm, and the thickness of the head is approximately 3.6 mm, and the tooth cleaning elements (18, 21) have a diameter of less than 0.1778mm (7 mil). a handle; a head at an end of the handle and having a thickness, a first surface, and an opposed second surface; tooth cleaning elements (18, 21, 23) extending outwardly from the first surface and having a length; and a tissue cleanser on the second surface having a height; wherein a head height comprising the thickness of the head, the length of the tooth cleaning elements, and the height of the tissue cleanser is less than 17.7 mm; characterised in that the height of the tissue cleanser is approximately.5 mm, and the thickness of the head is approximately 3.6 mm, and the tooth cleaning elements (18, 21) have a diameter of less than 0.1778mm (7 mil).
Building cylinder arrangement for a machine for the layer-by-layer production of three-dimensional objects by sintering or melting powdered material by means of a high-energy beam, in particular laser beam, comprising a) a building cylinder with a main body substantially in the form of a cylindrical casing and with an upper piston part movable on the inner side of the main body along a cylinder axis, the upper piston part having, on its upper side, a base element, in particular a substrate or a preform, for the growth of a three-dimensional object, and on the upper piston part there being formed a powder seal bearing against the inner side of the main body for sealing the powdered material, b) an intermediate piston part comprising a heating means, c) a thermal insulation, in particular a ceramic insulation plate, and d) a lower piston part comprising a gas seal, in particular of elastomer material, the upper piston part, the intermediate piston part, the thermal insulation and the lower piston part forming a piston of the building cylinder arrangement, which piston is displaceable in the main body and can be connected and separated between the upper piston part and the intermediate piston part by means of a locking means, characterized in that the upper piston part has a seal carrier, on which the powder seal is mounted, in that a ceramic insulation means, in particular a circumferential insulation ring, is mounted on the seal carrier, and in that the base element is mounted on the insulation means, the base element being at a distance from the seal carrier and from the powder seal. a) a building cylinder with a main body substantially in the form of a cylindrical casing and with an upper piston part movable on the inner side of the main body along a cylinder axis, the upper piston part having, on its upper side, a base element, in particular a substrate or a preform, for the growth of a three-dimensional object, and on the upper piston part there being formed a powder seal bearing against the inner side of the main body for sealing the powdered material, b) an intermediate piston part comprising a heating means, c) a thermal insulation, in particular a ceramic insulation plate, and d) a lower piston part comprising a gas seal, in particular of elastomer material,
A process for separating at least one individual pane of given size and edge form from a laminated glass sheet which has at least two laminated glass sheet panes (2, 3) which are arranged adjacently one above another and between which there is arranged a plastics film which securely connects the laminated glass sheet panes (2, 3) to one another, characterised in that - a laser track channel, which at least weakens the plastics structure of the plastics film, is placed in the plastics film along given dividing lines using the energy of a laser beam, in particular of the focal point of a focused laser beam or of a parallel laser beam of sufficient predetermined energy - the focal point is positioned at a laminated glass sheet edge and the laser track channel is designed such that during the progressive lasering, degradation fluids originating from the plastics film can escape into the open via the laser track channel - subsequently scoring lines aligned with the laser track channel are made mechanically in both surfaces of the laminated glass sheet panes (2, 3) and - then the glass material is broken along the scoring lines by bending of the laminated glass sheet or by the action of ultrasonic energy. - a laser track channel, which at least weakens the plastics structure of the plastics film, is placed in the plastics film along given dividing lines using the energy of a laser beam, in particular of the focal point of a focused laser beam or of a parallel laser beam of sufficient predetermined energy - the focal point is positioned at a laminated glass sheet edge and the laser track channel is designed such that during the progressive lasering, degradation fluids originating from the plastics film can escape into the open via the laser track channel - subsequently scoring lines aligned with the laser track channel are made mechanically in both surfaces of the laminated glass sheet panes (2, 3) and - then the glass material is broken along the scoring lines by bending of the laminated glass sheet or by the action of ultrasonic energy. - the focal point is positioned at a laminated glass sheet edge and the laser track channel is designed such that during the progressive lasering, degradation fluids originating from the plastics film can escape into the open via the laser track channel - subsequently scoring lines aligned with the laser track channel are made mechanically in both surfaces of the laminated glass sheet panes (2, 3) and - then the glass material is broken along the scoring lines by bending of the laminated glass sheet or by the action of ultrasonic energy.
A tire pressure sensor device, comprising a housing mounted with a sensor body, an air valve, a connecting portion extending from the housing for mounting the air valve, the connecting portion being provided with a first groove in a shape of a spherical cap, a bottom surface of the first groove being provided with a strip-shaped through-hole penetrating through a bottom portion of the first groove, and a plastic plug being detachably mounted on and mating with the first groove, the plastic plug further provided with a circular through-hole and the air valve being fixedly connected to the housing by screws passing through the strip-shaped through-hole, or the strip-shaped through-hole and the circular through-hole, characterized in that a top portion of the plastic plug is provided with a second groove and the circular through-hole penetrates through a bottom surface of said second groove.
A thermoresponsive adhesive material comprising: a linear, fluorinated-hydrophobic phase-separated polymer having fluorinated polymer units and hydrophobic polymer units, the fluorinated polymer units and the hydrophobic polymer units being randomly ordered along the polymer, the hydrophobic polymer units including a first hydrophobic polymer unit and a second hydrophobic polymer unit, the first hydrophobic polymer unit being chosen from acrylate units or methacrylate units each substituted with one or more linear alkyl groups, linear alkenyl groups or combinations thereof, where at least one of the linear alkyl groups or alkenyl groups has 16 to 20 carbon atoms, and wherein the second hydrophobic polymer unit is chosen from acrylate units or methacrylate units each substituted with one or more linear alkyl groups, linear alkenyl groups or combinations thereof, where at least one of the linear alkyl or alkenyl groups of the second hydrophobic polymer unit has 5 to 14 carbon atoms; wherein a tackiness of the thermoresponsive adhesive material is modifiable and reversible with a change in temperature. a linear, fluorinated-hydrophobic phase-separated polymer having fluorinated polymer units and hydrophobic polymer units, the fluorinated polymer units and the hydrophobic polymer units being randomly ordered along the polymer, the hydrophobic polymer units including a first hydrophobic polymer unit and a second hydrophobic polymer unit, the first hydrophobic polymer unit being chosen from acrylate units or methacrylate units each substituted with one or more linear alkyl groups, linear alkenyl groups or combinations thereof, where at least one of the linear alkyl groups or alkenyl groups has 16 to 20 carbon atoms, and wherein the second hydrophobic polymer unit is chosen from acrylate units or methacrylate units each substituted with one or more linear alkyl groups, linear alkenyl groups or combinations thereof, where at least one of the linear alkyl or alkenyl groups of the second hydrophobic polymer unit has 5 to 14 carbon atoms; wherein a tackiness of the thermoresponsive adhesive material is modifiable and reversible with a change in temperature.
A method of using a scalable video processing tool, the method comprising: receiving base layer video after reconstruction of the base layer video, wherein the re-constructed base layer video has plural sample values with a first sample depth; filtering the reconstructed base layer video using an adaptive lowpass filter; and upsampling the plural sample values of the filtered reconstructed base layer video to a second sample depth higher than the first sample depth; characterized in that the filtering includes changing a normalization factor of the adaptive lowpass filter at a location depending on how many neighbor sample values around the location are within a threshold of similarity to a current sample value at the location; wherein neighbor sample values around the location which are within the threshold of similarity contribute to filtering the current sample value at the location and neighbor sample values around the location which are not within the threshold of similarity are excluded from contributing to filtering the current sample value at the location. receiving base layer video after reconstruction of the base layer video, wherein the re-constructed base layer video has plural sample values with a first sample depth; filtering the reconstructed base layer video using an adaptive lowpass filter; and upsampling the plural sample values of the filtered reconstructed base layer video to a second sample depth higher than the first sample depth; characterized in that the filtering includes changing a normalization factor of the adaptive lowpass filter at a location depending on how many neighbor sample values around the location are within a threshold of similarity to a current sample value at the location; wherein neighbor sample values around the location which are within the threshold of similarity contribute to filtering the current sample value at the location and neighbor sample values around the location which are not within the threshold of similarity are excluded from contributing to filtering the current sample value at the location.
An environmental control system of an aircraft comprising a mist cooling system for cooling a motor, wherein the mist cooling system comprises a casing and a liquid inlet, wherein the casing comprises a first end, a second end, and at least one perforation at the first end, wherein the liquid inlet is coupled to the casing and is configured to receive a liquid flow from a source and to provide the liquid flow to the casing, wherein the at least one perforation is configured to output a mist from the liquid flow, wherein the first end is configured at an angle to provide a low pressure zone at the first end, wherein the low pressure zone draws the liquid flow from the at least one perforation as the mist, and wherein the at least one perforation is a plurality of perforations equally and circumferentially separated along an interior of the casing.
A material susceptible to dielectric heating by electromagnetic radiation, the material comprising: a base polymeric material, and a dielectric heating susceptor comprising: polymeric material different from the base polymeric material and having a higher dielectric loss factor than the base polymeric material, and electrically polarisable entities dispersed within the base polymeric material; wherein the dielectric heating susceptor polymeric material is present in the form of discrete phases in the base polymeric material, forming a multiple phase morphology; and wherein the electrically polarisable entities are present in a proportion of 0.1 to 10 wt% of the material. a base polymeric material, and a dielectric heating susceptor comprising: polymeric material different from the base polymeric material and having a higher dielectric loss factor than the base polymeric material, and electrically polarisable entities dispersed within the base polymeric material; polymeric material different from the base polymeric material and having a higher dielectric loss factor than the base polymeric material, and electrically polarisable entities dispersed within the base polymeric material; wherein the dielectric heating susceptor polymeric material is present in the form of discrete phases in the base polymeric material, forming a multiple phase morphology; and wherein the electrically polarisable entities are present in a proportion of 0.1 to 10 wt% of the material.
Method for determining a position of a vehicle on a carriageway, wherein the method has a step of receiving at least one satellite signal from a satellite locating system and determining coarse coordinates of the vehicle from at least the one received satellite signal, characterized by the following steps: obtaining an inertial signal which represents an acceleration of the vehicle in an essentially horizontal direction with respect to the carriageway, wherein the inertial signal is obtained by a sensor (150a, 150b) which is coupled to a vehicle occupant protection system (120, 160); determining the vehicle fine coordinates on the basis of the determined coarse coordinates of the vehicle and the obtained inertial signal in order to use the vehicle fine coordinates to determine the position of the vehicle on the carriageway; and reading out lane data about the carriageway from a digital road map and detecting a lane change of the vehicle, wherein the step of detecting the lane change is carried out using the lane data and the vehicle fine position. obtaining an inertial signal which represents an acceleration of the vehicle in an essentially horizontal direction with respect to the carriageway, wherein the inertial signal is obtained by a sensor (150a, 150b) which is coupled to a vehicle occupant protection system (120, 160); determining the vehicle fine coordinates on the basis of the determined coarse coordinates of the vehicle and the obtained inertial signal in order to use the vehicle fine coordinates to determine the position of the vehicle on the carriageway; and reading out lane data about the carriageway from a digital road map and detecting a lane change of the vehicle, wherein the step of detecting the lane change is carried out using the lane data and the vehicle fine position.
A method for producing a corneal epithelial cell, comprising introducing PAX6, KLF4, and OCT4 into a surface ectoderm-derived cell to induce a keratin 12-positive corneal epithelioid cell, wherein the corneal epithelioid cell is induced not through a state of a pluripotent cell.
An adapter for a multipiece excavating tooth assembly, comprising: an elongated member having a base portion and a nose portion axially arranged relative to each other along a longitudinal centerline of the adapter, said base portion being configured to permit attachment of said adapter to excavating equipment, and wherein said nose portion has top and bottom surfaces (30, 40) disposed generally above and below the longitudinal centerline of said adapter, respectively, with the top surface of said nose portion having two downwardly angled sides (36, 37) arranged on opposite lateral sides of the longitudinal centerline of said elongated member, and with the bottom surface of said nose portion having two upwardly angled sides (46, 47) arranged on opposite lateral sides of the longitudinal centerline of said elongated member, and wherein said nose portion further defines a recess disposed along an axis opening to one angled side (36, 37) of said top surface of the nose portion of said elongated member for accommodating a pin retaining apparatus, characterized in that each angled side of said top surface extends at an angle ranging between 25° and 65° relative to a horizontal plane and in that the axis of said recess passes through the longitudinal centerline of said elongated member and extends at an angle ranging between 25° and 65° relative to a horizontal plane, wherein said two downwardly angled sides (36, 37) are joined to each other along a first common edge (38, 78) and said two upwardly angled sides (46, 47) are joined to each other along a second common edge (48, 88). an elongated member having a base portion and a nose portion axially arranged relative to each other along a longitudinal centerline of the adapter, said base portion being configured to permit attachment of said adapter to excavating equipment, and wherein said nose portion has top and bottom surfaces (30, 40) disposed generally above and below the longitudinal centerline of said adapter, respectively, with the top surface of said nose portion having two downwardly angled sides (36, 37) arranged on opposite lateral sides of the longitudinal centerline of said elongated member, and with the bottom surface of said nose portion having two upwardly angled sides (46, 47) arranged on opposite lateral sides of the longitudinal centerline of said elongated member, and wherein said nose portion further defines a recess disposed along an axis opening to one angled side (36, 37) of said top surface of the nose portion of said elongated member for accommodating a pin retaining apparatus, characterized in that each angled side of said top surface extends at an angle ranging between 25° and 65° relative to a horizontal plane and in that the axis of said recess passes through the longitudinal centerline of said elongated member and extends at an angle ranging between 25° and 65° relative to a horizontal plane, wherein said two downwardly angled sides (36, 37) are joined to each other along a first common edge (38, 78) and said two upwardly angled sides (46, 47) are joined to each other along a second common edge (48, 88).
A geothermal heating and/or cooling system comprising: a geothermal storage; at least one outer heat exchanger (4a-c); a main circuit configured to route a flow of heat transfer liquid out of the geothermal storage to the at least one outer heat exchanger (4a-c) and back to the geothermal storage again; a main circulation pump configured to force the heat transfer liquid through the main circuit; a temperature sensor configured to measure the temperature of the heat transfer liquid; a flow rate sensor configured to measure flow rate in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), and a controller configured to control the main circulation pump based on temperature readings of the temperature sensor such that a calculated Reynolds number for the flow of heat transfer liquid is constant at a predetermined target Reynolds number over at least a primary temperature range, wherein the predetermined target Reynolds number is within the range of 2500-3500 such that turbulent flow of the heat transfer liquid is achieved, wherein the controller further is configured to control the speed of the main circulation pump to achieve a target flow rate measured by the flow rate sensor in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), wherein the controller is further configured to base the control of the main circulation pump on a predetermined control curve, lookup table or function correlating temperature reading of the temperature sensor with target flow of heat transfer liquid for a given target Reynolds number. a geothermal storage; at least one outer heat exchanger (4a-c); a main circuit configured to route a flow of heat transfer liquid out of the geothermal storage to the at least one outer heat exchanger (4a-c) and back to the geothermal storage again; a main circulation pump configured to force the heat transfer liquid through the main circuit; a temperature sensor configured to measure the temperature of the heat transfer liquid; a flow rate sensor configured to measure flow rate in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), and a controller configured to control the main circulation pump based on temperature readings of the temperature sensor such that a calculated Reynolds number for the flow of heat transfer liquid is constant at a predetermined target Reynolds number over at least a primary temperature range, wherein the predetermined target Reynolds number is within the range of 2500-3500 such that turbulent flow of the heat transfer liquid is achieved, wherein the controller further is configured to control the speed of the main circulation pump to achieve a target flow rate measured by the flow rate sensor in a return portion of the main circuit after the at least one outer heat exchanger (4a-c), wherein the controller is further configured to base the control of the main circulation pump on a predetermined control curve, lookup table or function correlating temperature reading of the temperature sensor with target flow of heat transfer liquid for a given target Reynolds number.