mhurhangee/ep-ind-claims huggingface dataset:
A secondary barrier (200, 1300) comprising: a plurality of tracks (402, 402a, 1404, 1404a) configured to mount to a first monument (216, 218, 1308) in a cabin (201, 1301) of an aircraft (100, 1302); a plurality of rods (404, 404a, 1406, 1406a), respective ones of the rods (404, 1406) to slidably engage respective ones of the tracks (402, 402a, 1404, 1404a); a panel (406, 1412) coupled to respective ends of the rods (404, 404a, 1406, 1406a), the rods (404, 404a, 1406, 1406a) being configured to move relative to the tracks (402, 402a, 1404, 1404a) between a stowed position (230, 1402) and a deployed position (304, 1310) corresponding to a stowed position (230,1402) and a deployed position (304, 1310) of the secondary barrier (200, 1300), the panel (406, 1412) in the deployed position (304, 1310) being configured to interface with a second monument (216, 220, 1314) in the cabin opposite the first monument (216, 218, 1308), in use the rods (404, 404a, 1406, 1406a) being configured to extend between the first monument (216, 218, 1308) and the second monument (216, 220, 1314) when the secondary barrier (200, 1300) is in the deployed position (304, 1310), wherein the panel (406, 1412) is a metallic strip cap. a plurality of tracks (402, 402a, 1404, 1404a) configured to mount to a first monument (216, 218, 1308) in a cabin (201, 1301) of an aircraft (100, 1302); a plurality of rods (404, 404a, 1406, 1406a), respective ones of the rods (404, 1406) to slidably engage respective ones of the tracks (402, 402a, 1404, 1404a); a panel (406, 1412) coupled to respective ends of the rods (404, 404a, 1406, 1406a), the rods (404, 404a, 1406, 1406a) being configured to move relative to the tracks (402, 402a, 1404, 1404a) between a stowed position (230, 1402) and a deployed position (304, 1310) corresponding to a stowed position (230,1402) and a deployed position (304, 1310) of the secondary barrier (200, 1300), the panel (406, 1412) in the deployed position (304, 1310) being configured to interface with a second monument (216, 220, 1314) in the cabin opposite the first monument (216, 218, 1308), in use the rods (404, 404a, 1406, 1406a) being configured to extend between the first monument (216, 218, 1308) and the second monument (216, 220, 1314) when the secondary barrier (200, 1300) is in the deployed position (304, 1310), wherein the panel (406, 1412) is a metallic strip cap.
An electronic device comprising: a first housing; a second housing; a hinge structure connected to the first housing and the second housing; a foldable display; a transparent cover (210, 220) configured to cover the foldable display; a support member configured to support the foldable display, the support member including a conductive side wall portion and a conductive support portion; a protection member made of a insulative material to surround an edge of the transparent cover in a spaced apart manner, the protection member being attached to the support member; a conductive member disposed on a portion of an inner surface of the protection member, the conductive member being configured to provide an electrical path that is configured to allow a static electrical charge being applied from outside into the foldable display to be transmitted to the conductive support portion; and an insulative member disposed on a portion of an inner surface of the conductive member, the insulative member configured to block a portion of a space between the transparent cover and the protection member. a first housing; a second housing; a hinge structure connected to the first housing and the second housing; a foldable display; a transparent cover (210, 220) configured to cover the foldable display; a support member configured to support the foldable display, the support member including a conductive side wall portion and a conductive support portion; a protection member made of a insulative material to surround an edge of the transparent cover in a spaced apart manner, the protection member being attached to the support member; a conductive member disposed on a portion of an inner surface of the protection member, the conductive member being configured to provide an electrical path that is configured to allow a static electrical charge being applied from outside into the foldable display to be transmitted to the conductive support portion; and an insulative member disposed on a portion of an inner surface of the conductive member, the insulative member configured to block a portion of a space between the transparent cover and the protection member.
A radiation dosimetry gel characterized by comprising a water-soluble organic polymer having an organic acid salt structure or an organic acid anion structure, a silicate, and a dispersant for the silicate.
An vitro method for evaluating dysplasia or cancer risk in a patient with ulcerative colitis, comprising: a) determining in a sample from the patient that the sample has increased methylation levels in genes encoding miR-137, miR-124 and miR-34b/c compared to control or reference methylation levels for the genes; and, b) identifying the patient as being at a significant risk for developing colon dysplasia or cancer compared to the overall risk for patients with ulcerative colitis. a) determining in a sample from the patient that the sample has increased methylation levels in genes encoding miR-137, miR-124 and miR-34b/c compared to control or reference methylation levels for the genes; and, b) identifying the patient as being at a significant risk for developing colon dysplasia or cancer compared to the overall risk for patients with ulcerative colitis.
A method for fabricating an object (200, 600), comprising: (a) irradiating a layer of powder in a powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed; (c) repeating steps (a) and (b) until the object (200, 600) and at least one support structure (210, 610) is formed in the powder bed, wherein the at least one support structure (210, 610) and the object have a first orientation, wherein the object comprises an outlet; (d) rotating the support structure (210, 610) to a second orientation; and (e) removing the support structure (210, 610) from the object by passing the support structure (210, 610) through the outlet of the object (200, 600); wherein the support structure (210, 610) is incapable of passing through the outlet in the first orientation prior to rotating the removable support structure (210, 610) to the second orientation, due to the geometry of the support structure (210, 610) and geometry of the object (200, 600). (a) irradiating a layer of powder in a powder bed to form a fused region; (b) providing a subsequent layer of powder over the powder bed by passing a recoater arm over the powder bed from a first side of the powder bed; (c) repeating steps (a) and (b) until the object (200, 600) and at least one support structure (210, 610) is formed in the powder bed, wherein the at least one support structure (210, 610) and the object have a first orientation, wherein the object comprises an outlet; (d) rotating the support structure (210, 610) to a second orientation; and (e) removing the support structure (210, 610) from the object by passing the support structure (210, 610) through the outlet of the object (200, 600); wherein
A light emitting device comprising: a substrate; at least one light emitting element located on the substrate and configured to emit light; a first electrode and a second electrode spaced from each other in a plan view by a predetermined distance with the light emitting element interposed therebetween; a color conversion layer located on the substrate and configured to convert light emitted from the light emitting element into light having a specific color; a first contact electrode configured to electrically couple the first electrode with a first end of the light emitting element; and a second contact electrode configured to electrically couple the second electrode with a second end of the light emitting element, wherein, in a plan view, the color conversion layer is spaced from the light emitting element by a predetermined distance and overlaps with the second contact electrode, wherein the color conversion layer is located on the second electrode and overlaps with the second electrode; and wherein the second contact electrode is located on the color conversion layer. a substrate; at least one light emitting element located on the substrate and configured to emit light; a first electrode and a second electrode spaced from each other in a plan view by a predetermined distance with the light emitting element interposed therebetween; a color conversion layer located on the substrate and configured to convert light emitted from the light emitting element into light having a specific color; a first contact electrode configured to electrically couple the first electrode with a first end of the light emitting element; and a second contact electrode configured to electrically couple the second electrode with a second end of the light emitting element, wherein, in a plan view, the color conversion layer is spaced from the light emitting element by a predetermined distance and overlaps with the second contact electrode, wherein the color conversion layer is located on the second electrode and overlaps with the second electrode; and wherein the second contact electrode is located on the color conversion layer.
A method for touch-based operation in a mobile device, the method comprising: displaying, on a touch screen (141,143) of the mobile device, a communication-related list comprising a plurality of items; detecting, on the touch screen (141,143), a first touch input at a first touchdown location on a first item of the plurality of items; in response to detecting movement of the first touch input from the first touchdown location in a first direction towards a first side of the first item, moving the first item on the touch screen (141,143) in the first direction corresponding to the movement of the first touch input, and displaying a first icon at a second side of the first item, wherein the first icon represents an executable function assigned to the movement of the first touch input in the first direction on the first item, and wherein the second side of the first item is opposite to the first side; and executing the executable function in response to detecting at least the movement of the first touch input in the first direction to a point beyond a first critical point which changes depending on the first touchdown location. displaying, on a touch screen (141,143) of the mobile device, a communication-related list comprising a plurality of items; detecting, on the touch screen (141,143), a first touch input at a first touchdown location on a first item of the plurality of items; in response to detecting movement of the first touch input from the first touchdown location in a first direction towards a first side of the first item, moving the first item on the touch screen (141,143) in the first direction corresponding to the movement of the first touch input, and displaying a first icon at a second side of the first item, wherein the first icon represents an executable function assigned to the movement of the first touch input in the first direction on the first item, and wherein the second side of the first item is opposite to the first side; and executing the executable function in response to detecting at least the movement of the first touch input in the first direction to a point beyond a first critical point which changes depending on the first touchdown location.
An umbilical comprising an outer tube, at least one system and at least one further support line, wherein the at least one system and the at least one support line are placed in the outer tube, wherein said system has an inner structure and wherein the inner structure comprises at least one inner tube made of stainless steel and at least one sensor device with at least one sensor (11, 13) to measure at least one condition of the system, and wherein the inner structure is coated with at least one layer of at least one plastic material and characterized in that the at least one sensor device comprises an inner wireless data coupling element, wherein the inner wireless data coupling element is operatively connected to the at least one sensor (11, 13) to receive a signal from the at least one sensor (11, 13), and wherein the inner wireless data coupling element is arranged to transmit the signal received from the at least one sensor (11, 13); and in that at least one groove extends in an outer surface of at least one of the at least one inner tube in a longitudinal direction of the at least one inner tube, and wherein at least one signal line which is operatively coupled to the at least one sensor device is placed in the at least one groove. wherein said system has an inner structure and wherein the inner structure comprises at least one inner tube made of stainless steel and at least one sensor device with at least one sensor (11, 13) to measure at least one condition of the system, and wherein the inner structure is coated with at least one layer of at least one plastic material and characterized in that the at least one sensor device comprises an inner wireless data coupling element, wherein the inner wireless data coupling element is operatively connected to the at least one sensor (11, 13) to receive a signal from the at least one sensor (11, 13), and wherein the inner wireless data coupling element is arranged to transmit the signal received from the at least one sensor (11, 13); and in that at least one groove extends in an outer surface of at least one of the at least one inner tube in a longitudinal direction of the at least one inner tube, and wherein at least one signal line which is operatively coupled to the at least one sensor device is placed in the at least one groove.
A laser welding method comprising: irradiating a workpiece with a laser beam moved in a helical shape along a weld part of the workpiece, wherein the helical shape is a combination of a circular trajectory in which the laser beam is moved circularly, and a movement trajectory in which the laser beam is moved in a proceeding direction along the weld part, characterized in that first energy of the laser beam moving so as to have a component of the proceeding direction in the circular trajectory is larger than second energy of the laser beam moving so as to have a component of an opposite direction to the proceeding direction in the circular trajectory. irradiating a workpiece with a laser beam moved in a helical shape along a weld part of the workpiece, wherein the helical shape is a combination of a circular trajectory in which the laser beam is moved circularly, and a movement trajectory in which the laser beam is moved in a proceeding direction along the weld part, characterized in that first energy of the laser beam moving so as to have a component of the proceeding direction in the circular trajectory is larger than second energy of the laser beam moving so as to have a component of an opposite direction to the proceeding direction in the circular trajectory.
A hydrogen-sensitive cerium oxide-based composition, comprising: one or more of cerium oxide and a doped cerium oxide, the doped cerium oxide selected from the group consisting of zirconium-doped ceria, gadolinium-doped ceria, samarium-doped ceria, lanthanum-doped ceria, yttrium-doped ceria, and a mixture thereof; and a modifier comprising one or more of tin oxide and indium oxide, the composition comprising the modifier up to 99 wt % wherein the cerium oxide-based composition optionally comprises a noble metal promoter. one or more of cerium oxide and a doped cerium oxide, the doped cerium oxide selected from the group consisting of zirconium-doped ceria, gadolinium-doped ceria, samarium-doped ceria, lanthanum-doped ceria, yttrium-doped ceria, and a mixture thereof; and a modifier comprising one or more of tin oxide and indium oxide, the composition comprising the modifier up to 99 wt % wherein the cerium oxide-based composition optionally comprises a noble metal promoter.
A recombinant yeast microorganism comprising an engineered metabolic pathway for converting pyruvate to isobutanol, wherein the engineered metabolic pathway comprises an NADH-dependent ketol-acid reductoisomerase (KARI) and an NADH-dependent alcohol dehydrogenase, wherein the NADH-dependent KARI is for catalysing the conversion of acetolactate to 2,3-dihydroxyisovalerate, and comprises two or more mutations or modifications at positions corresponding to amino acids selected from the group consisting of: (a) alanine 71 of the wild-type E. coli IlvC (SEQ ID NO 13); (b) arginine 76 of the wild-type E. coli IlvC; (c) serine 78 of the wild-type E. coli IlvC; and (d) glutamine 110 of the wild-type E. coli IlvC, and wherein the NADH-dependent ADH is for catalysing the conversion of isobutyraldehyde to isobutanol.
An apparatus for the production of vinyl chloride by thermal cracking of 1,2-dichloroethane, comprising at least an EDC vaporizer, a cracking furnace, a quench column and a purification facility in that order, wherein, in the feed line through which 1,2-dichloroethane is fed into the radiation zone of the cracking furnace, a predetermined pressure in the range of from 1.4 to 2.5 MPa is ensured and at least a first heat exchanger is arranged by means of which pressure fluctuations and temperature fluctuations in the EDC vaporization are compensated for, and in which a second heat exchanger, operated at least partly by the waste heat of the quench column, is additionally arranged in the feed line; wherein a third heat exchanger integrated into the convection zone of the cracking furnance and operated at least partly by the waste heat of the flue gases present in the convection zone of the cracking furnace, is additionally arranged in the feed line; wherein the first heat exchanger is arranged between the second heat exchanger and the third heat exchanger; wherein the EDC vaporizer is arranged between the third heat exchanger and the cracking furnace, and the EDC vaporizer uses the waste heat of the hot cracking gases issuing from the cracking furnace to vaporize EDC before the hot cracking gases are passed into the quench column.
A refrigerating unit and/or a freezer unit having a refrigerant circuit comprising an evaporator and a condenser; and a fan in the region of the evaporator for the direct ventilation of a unit area or of a unit component, wherein a regulation module is provided for regulating the speed and/or operating voltage of the fan in dependence on at least one influencing value; and the regulation module takes account of the current evaporator temperature and/or of a difference between the actual evaporator temperature and the desired evaporator temperature as the influencing value, characterized in that the used transfer function of the regulation module is a logarithmic or polynomial, or exponential function. a refrigerant circuit comprising an evaporator and a condenser; and a fan in the region of the evaporator for the direct ventilation of a unit area or of a unit component, a regulation module is provided for regulating the speed and/or operating voltage of the fan in dependence on at least one influencing value; and the regulation module takes account of the current evaporator temperature and/or of a difference between the actual evaporator temperature and the desired evaporator temperature as the influencing value,
A head-mounted display configured to display an image to a user, the head-mounted display comprising: a protruding member disposed on an outer surface member of the head-mounted display, and in proximity to a heat generation source arranged inside the head-mounted display; and a heat transfer member disposed between the protruding member and the heat generation source, being made of a deformable sheet, wherein the heat transfer member is deformed along and in close contact with the outer surface member having a curved shape and the protruding member, wherein the protruding member is made of a material having lower thermal conductivity than the heat transfer member, and wherein the protruding member is composed of a surface in contact with the heat generation source via the heat transfer member, and of ribs configuring surfaces in contact with the outer surface member. a protruding member disposed on an outer surface member of the head-mounted display, and in proximity to a heat generation source arranged inside the head-mounted display; and a heat transfer member disposed between the protruding member and the heat generation source, being made of a deformable sheet, wherein the heat transfer member is deformed along and in close contact with the outer surface member having a curved shape and the protruding member, wherein the protruding member is made of a material having lower thermal conductivity than the heat transfer member, and wherein the protruding member is composed of a surface in contact with the heat generation source via the heat transfer member, and of ribs configuring surfaces in contact with the outer surface member.
A pavement marking composition, comprising: a non-crosslinked elastomeric material selected from the group consisting of acrylonitrile-butadiene polymers, neoprene, polyacrylates, natural rubber, and styrene-butadiene polymers, the non-crosslinked elastomeric material further including a polyvinyl chloride resin; thermoplastic reinforcing polymer; wherein the pavement marking composition lacks a reinforcing material selected from the group consisting of ceramic fibers, asbestos, silicon dioxide, and talc, and wherein the pavement marking composition has a Tg that is less than -10 °C determined by using a differential scanning calorimeter. a non-crosslinked elastomeric material selected from the group consisting of acrylonitrile-butadiene polymers, neoprene, polyacrylates, natural rubber, and styrene-butadiene polymers, the non-crosslinked elastomeric material further including a polyvinyl chloride resin; thermoplastic reinforcing polymer; wherein the pavement marking composition lacks a reinforcing material selected from the group consisting of ceramic fibers, asbestos, silicon dioxide, and talc, and wherein the pavement marking composition has a Tg that is less than -10 °C determined by using a differential scanning calorimeter.
A method of producing a compression mould profile of a compression mould for a non-circular sintered chain wheel or cog belt wheel which has a maximum diameter at a major axis passing through an axis of rotation which is greater than a minimum diameter measured at a minor axis likewise passing through the axis of rotation, wherein the maximum diameter and the minimum diameter are defined at the crown circle or with the help of the root circle or the reference circle of the chain wheel or cog belt wheel and wherein a compression mould profile is set up by scaling a desired profile of the chain wheel or cog belt wheel with a scaling factor, characterized in that the compression mould profile is set up by applying a corrective shift in addition to scaling the desired profile.