mhurhangee/ep-ind-claims huggingface dataset:
A sustained release preparation for use in controlling an insect pest, the preparation comprising: - a polymer tube, and - a gel composition in the polymer tube, the composition comprising one or more volatile substances and an oil gelling agent, wherein said one or more volatile substances are comprised in an amount of from 70.0 to 99.0% by weight by the gel composition and are released outside of the polymer tube through the polymer tube; said oil gelling agent is selected from the group consisting of a long-chain fatty acid which is a saturated or unsaturated fatty acid having 8 to 24 carbon atoms and a dextrin fatty acid ester. - a polymer tube, and - a gel composition in the polymer tube,
A fan case (10, 210, 310) adapted to extend around blades of a fan rotor (112, 116) included in a gas turbine engine, the fan case (10, 210, 310) comprising an annular outer shroud arranged to extend around a central axis (20, 220, 320) of the fan case (10, 210, 310), the annular outer shroud having an outer surface facing away from the central axis (20, 220, 320) and an inner surface facing toward the central axis (20, 220, 320) and a liner segment (15, 215, 315) coupled to the inner surface of the annular outer shroud, the liner segment (15, 215, 315) including an inner radial surface (42, 242, 342), an outer radial surface (44, 244, 344) spaced apart radially from the inner radial surface (42, 242, 342), and a head surface (46, 246, 346) extending between and interconnecting the inner and outer radial surfaces (42, 342, 44, 344), wherein the head surface (46, 246, 346) intersects a first ray (60, 360) extending from the central axis (20, 220, 320) to the annular outer shroud, wherein a first liner segment (15A, 215A, 315A) having the outer radial surface (44, 244, 344) coupled to the inner surface of the annular outer shroud and the inner radial surface (42, 242, 342) radially spaced apart from the outer radial surface (44, 244, 344), the inner radial surface (42, 242, 342) positioned at a first radius from the central axis (20, 220, 320), the first liner segment (15A, 215A, 315A) including a body, a head coupled to the body and extending from the body circumferentially toward a second liner segment, and a tail coupled to the body and extending circumferentially away from the body, and a second liner segment having an outer radial surface (44, 244, 344) coupled to the inner surface of the annular outer shroud and an inner radial surface (42, 242, 342) radially spaced apart from the outer radial surface (44, 244, 344), the inner radial surface (42, 242, 342) positioned at a first radius from the central axis (20, 220, 320), the second liner segment including a body, a tail coupled to the body and extending circumferentially away from the body toward the first liner segment (15A, 215A, 315A), and a head coupled to the body and extending circumferentially away from the body and the first liner segment (15A, 215A, 315A), wherein the fan case (10, 210, 310) is configured such that movement of the first liner segment (15A, 215A, 315A) in a radially outward direction causes the head of the first liner segment (15A, 215A, 315A) to engage the tail of the second liner segment and to move therewith to cause the inner surface of the first liner segment (15A, 215A, 315A) to be positioned at a second radius from the central axis (20, 220, 320) and the inner surface of the second liner segment to be positioned at about the second radius from the central axis (20, 220, 320), wherein the head of the first liner segment (15A, 215A, 315A) includes the head surface (46, 246, 346) that intersects the first ray (60, 360) extending from the central axis (20, 220, 320) to the annular outer shroud and the tail of the second liner segment includes a tail surface that intersects the first ray (60, 360).
A hydraulic power steering system that generates steering assist force by supplying hydraulic fluid from a hydraulic pump to a power cylinder, which is coupled to a steering mechanism of a vehicle, via a hydraulic control valve that is not mechanically coupled to a steering member, comprising: a valve driving motor that is used to control an opening degree of the hydraulic control valve; temperature detecting means for detecting an ambient temperature of the hydraulic control valve; and alternate rotation driving means for rotating the valve driving motor alternately in a forward direction and a reverse direction for a predetermined period of time when the temperature detected by the temperature detecting means is lower than or equal to a predetermined value. a valve driving motor that is used to control an opening degree of the hydraulic control valve; temperature detecting means for detecting an ambient temperature of the hydraulic control valve; and alternate rotation driving means for rotating the valve driving motor alternately in a forward direction and a reverse direction for a predetermined period of time when the temperature detected by the temperature detecting means is lower than or equal to a predetermined value.
Blood filtering device comprising: a housing, a filtration section, a first variable blood reservoir volume, a receptacle for a second variable blood reservoir volume, wherein the filtration section comprises a raw side and a clean side being separated by a filter medium, wherein the filtration section comprises a first communication between the raw side and the first variable blood reservoir volume and a second communication between the raw side and the receptacle, so that upon variation of one variable blood reservoir volume blood in one of the first variable blood reservoir volume and a second variable blood reservoir volume to be coupled to the receptacle flows through the respective communication (24, 25) to the raw side, wherein a blood plasma/serum may transit the filter medium and the residual blood flows through the other of the respective communication (25, 24) into the other of the first variable blood reservoir volume and a second variable blood reservoir volume to be coupled to the receptacle, wherein the first variable blood reservoir volume is defined by a tubular volume and a movable piston therein, the device being characterized by a resilient element functionally coupled between the movable piston and the housing, so as to provide a force to move the piston in a direction toward the first communication. a housing, a filtration section, a first variable blood reservoir volume, a receptacle for a second variable blood reservoir volume, wherein the filtration section comprises a raw side and a clean side being separated by a filter medium, wherein the filtration section comprises a first communication between the raw side and the first variable blood reservoir volume and a second communication between the raw side and the receptacle, so that upon variation of one variable blood reservoir volume blood in one of the first variable blood reservoir volume and a second variable blood reservoir volume to be coupled to the receptacle flows through the respective communication (24, 25) to the raw side, wherein a blood plasma/serum may transit the filter medium and the residual blood flows through the other of the respective communication (25, 24) into the other of the first variable blood reservoir volume and a second variable blood reservoir volume to be coupled to the receptacle, wherein the first variable blood reservoir volume is defined by a tubular volume and a movable piston therein, the device being characterized by a resilient element functionally coupled between the movable piston and the housing, so as to provide a force to move the piston in a direction toward the first communication.
A portable computing device, comprising: a wedge shaped base portion comprising a first end and a tapered second end narrower than the first end, the wedge shaped base portion having an inclined top surface and configured to support and enclose a plurality of operational components, the wedge shaped base portion further configured to present one or more user input components at an angle to an end user of the portable computing device, the user input components presented at the angle to the end user comprising: a keyboard located on the base portion and adapted to accept inputs from a user of the portable computing device; and a touch pad located within and proximate to a touch pad opening in the base portion at the second end, the touch pad being adapted to accept touch inputs from a user of the portable computing device, characterized in that the touch pad comprises: a glass layer having a top surface adapted to accept the touch inputs from a user, wherein the glass layer is further adapted to provide primary structural rigidity for the touch pad and has a thinned region adjacent to the tapered second end of the base portion, a cosmetic layer located below the glass layer, a sensor layer bonded to the cosmetic layer and adapted to detect inputs at the top surface of the glass layer, circuitry adapted to process signals from the sensor layer, and a connection interface that connects the circuitry to a main logic board on the portable computing device. a keyboard located on the base portion and adapted to accept inputs from a user of the portable computing device; and a touch pad located within and proximate to a touch pad opening in the base portion at the second end, the touch pad being adapted to accept touch inputs from a user of the portable computing device, characterized in that the touch pad comprises: a glass layer having a top surface adapted to accept the touch inputs from a user, wherein the glass layer is further adapted to provide primary structural rigidity for the touch pad and has a thinned region adjacent to the tapered second end of the base portion, a cosmetic layer located below the glass layer, a sensor layer bonded to the cosmetic layer and adapted to detect inputs at the top surface of the glass layer, circuitry adapted to process signals from the sensor layer, and a connection interface that connects the circuitry to a main logic board on the portable computing device. a glass layer having a top surface adapted to accept the touch inputs from a user, wherein the glass layer is further adapted to provide primary structural rigidity for the touch pad and has a thinned region adjacent to the tapered second end of the base portion, a cosmetic layer located below the glass layer, a sensor layer bonded to the cosmetic layer and adapted to detect inputs at the top surface of the glass layer, circuitry adapted to process signals from the sensor layer, and a connection interface that connects the circuitry to a main logic board on the portable computing device.
A temperature control circuit for an inkjet printhead, comprising: a) a temperature sensor portion that generates an output current of a sum of a current proportional to a sensed temperature on the inkjet printhead and an offset current (IOFFSET); and b) an offset current correction portion that generates a correction current that is subtracted from the output current to at least partially compensate for the offset current, the output current as compensated by the correction current being output as a temperature control circuit output current; characterized in that the temperature control circuit is such that the temperature sensor portion comprises a band-gap temperature detection circuit (M4, M7, M30, M31, M34, M35, M25, M26, M5, M40). a) a temperature sensor portion that generates an output current of a sum of a current proportional to a sensed temperature on the inkjet printhead and an offset current (IOFFSET); and b) an offset current correction portion that generates a correction current that is subtracted from the output current to at least partially compensate for the offset current, the output current as compensated by the correction current being output as a temperature control circuit output current; characterized in that the temperature control circuit is such that the temperature sensor portion comprises a band-gap temperature detection circuit (M4, M7, M30, M31, M34, M35, M25, M26, M5, M40).
A process for suspension or entrainment gasification of a carbonaceous material, which process comprises the steps of a. introducing recycled char into a reactor lower section and partially combusting said recycled char therein with a stream comprising an oxygen-containing gas or steam thereby evolving heat and forming mixture products comprising synthesis gas and molten slag; b. passing said synthesis gas from said reactor lower section upward into a reactor upper section and pyrolysing therein with a stream comprising a slurry of particulate carbonaceous material in a liquid carrier thereby forming mixture products comprising i) a gaseous product stream comprising synthesis gas and residual tar, ii) char, and iii) vapor; c. passing said mixture products from said reactor upper section through a separation device whereby said char are separated from said mixture products from said reactor upper section and recycled as feed stock to be introduced to said reactor lower section; and d. introducing said gaseous product stream comprising synthesis gas and residual tar from an outlet of the separation device into a reaction zone whereby said residual tar is removed; whereby said heat evolved in said step (a) is recovered by converting said slurry of particulate carbonaceous material and said carrier liquid in step (b) into said gaseous product stream in step (b), wherein the process further comprises maintaining the temperature of the reactor lower section in the range of 1316°C (2400°F) to 1649°C (3000°F) and maintaining the temperature of the reactor upper section in the range of 232°C (450°F) to 704°C (1300°F). a. introducing recycled char into a reactor lower section and partially combusting said recycled char therein with a stream comprising an oxygen-containing gas or steam thereby evolving heat and forming mixture products comprising synthesis gas and molten slag; b. passing said synthesis gas from said reactor lower section upward into a reactor upper section and pyrolysing therein with a stream comprising a slurry of particulate carbonaceous material in a liquid carrier thereby forming mixture products comprising i) a gaseous product stream comprising synthesis gas and residual tar, ii) char, and iii) vapor; c. passing said mixture products from said reactor upper section through a separation device whereby said char are separated from said mixture products from said reactor upper section and recycled as feed stock to be introduced to said reactor lower section; and d. introducing said gaseous product stream comprising synthesis gas and residual tar from an outlet of the separation device into a reaction zone whereby said residual tar is removed; whereby said heat evolved in said step (a) is recovered by converting said slurry of particulate carbonaceous material and said carrier liquid in step (b) into said gaseous product stream in step (b), wherein the process further comprises maintaining the temperature of the reactor lower section in the range of 1316°C (2400°F) to 1649°C (3000°F) and maintaining the temperature of the reactor upper section in the range of 232°C (450°F) to 704°C (1300°F).
Objective having a fixed focal length, consisting of five lens groups, wherein three lens groups (G1, G3, G5) are spatially fixed and two lens groups (G2, G4) are mounted so as to be displaceable along an optical axis, characterized in that a) a first front lens group, viewed from an object side, is arranged so as to be spatially fixed, b) a second lens group having a positive refractive power as a focusing front group is arranged so as to be displaceable, c) a third lens group, having a positive or negative refractive power and containing a spatially fixed iris diaphragm that has an adjustable opening, as a centre group is arranged so as to be spatially fixed, d) a fourth lens group having a negative refractive power as a focusing back group is arranged so as to be displaceable and e) a fifth back lens group is arranged so as to be spatially fixed with respect to an imaging plane in an objective tube, and both the focusing front group and the focusing back group are movable together relative to one another and to the lens groups (G1, G2, G3) that are arranged so as to be spatially fixed for focusing the objective at objects at different object distances. a) a first front lens group, viewed from an object side, is arranged so as to be spatially fixed, b) a second lens group having a positive refractive power as a focusing front group is arranged so as to be displaceable, c) a third lens group, having a positive or negative refractive power and containing a spatially fixed iris diaphragm that has an adjustable opening, as a centre group is arranged so as to be spatially fixed, d) a fourth lens group having a negative refractive power as a focusing back group is arranged so as to be displaceable and e) a fifth back lens group is arranged so as to be spatially fixed
Method for controlling tyres in a tyre production line, comprising: - predisposing a tyre to be controlled, the tyre having a rotation axis and a middle line plane orthogonal to the rotation axis; characterized in that the method comprises the steps of: - elastically deforming a portion of a lateral wall of said tyre by imparting, through physical contact, a force of compression on an outer contact surface belonging to said lateral wall portion, said compression force having at least one component parallel to the rotation axis and being directed towards the middle line plane; - illuminating, with a light radiation, one surface of said lateral wall portion and detecting an image of said illuminated surface; - generating at least one control signal representative of the detected image; and - analysing said at least one control signal in order to detect the possible presence of flaws on the lateral wall portion. - predisposing a tyre to be controlled, the tyre having a rotation axis and a middle line plane orthogonal to the rotation axis; - elastically deforming a portion of a lateral wall of said tyre by imparting, through physical contact, a force of compression on an outer contact surface belonging to said lateral wall portion, said compression force having at least one component parallel to the rotation axis and being directed towards the middle line plane; - illuminating, with a light radiation, one surface of said lateral wall portion and detecting an image of said illuminated surface; - generating at least one control signal representative of the detected image; and - analysing said at least one control signal in order to detect the possible presence of flaws on the lateral wall portion.
A three-dimensional printer comprising: an outer housing comprising a top surface and a bottom surface; a cartridge receiver integrated with the 3D printer at least partially within the outer housing and disposed below a top of a build enclosure of the 3D printer, the cartridge receiver to receive a recycle material cartridge to make material available from the material cartridge as build material for printing; and characterized by: a recycle material vessel to receive recycle material from the recycle material cartridge; a conveying system to transport the recycle material from the recycle material vessel to an upper portion of the 3D printer. an outer housing comprising a top surface and a bottom surface; a cartridge receiver integrated with the 3D printer at least partially within the outer housing and disposed below a top of a build enclosure of the 3D printer, the cartridge receiver to receive a recycle material cartridge to make material available from the material cartridge as build material for printing; and characterized by: a recycle material vessel to receive recycle material from the recycle material cartridge; a conveying system to transport the recycle material from the recycle material vessel to an upper portion of the 3D printer.
An apparatus for applying a zinc-iron alloy electroplate to a workpiece, said apparatus comprising: an electroplating bath having a pH more than about 14, said electroplating bath including zinc ions, and an additive; a cathode workpiece in said bath; an anode assembly contacting said bath, said anode assembly including an anolyte and an insoluble metal anode in said anolyte; said additive being capable of electrolytically breaking down upon contact with said anode; said anode assembly inhibiting the electrolytic breakdown of said additive; characterized in that said electroplating bath is a non-cyanide electroplating bath which further includes a brightener, said additive is a chelating agent which is capable of electrolytically breaking down upon contact with said anode to form an oxalate, the electroplating bath further comprises additional iron ions, which can be electroplated onto said workpiece with the zinc ions, and the additional metal ions are free of nickel ions. an electroplating bath having a pH more than about 14, said electroplating bath including zinc ions, and an additive; a cathode workpiece in said bath; an anode assembly contacting said bath, said anode assembly including an anolyte and an insoluble metal anode in said anolyte;
A cooled electronic circuit board comprising: - a support circuit board equipped with sockets (12a, 12b, 12c) mutually alongside each other for DIMM storage modules; - DIMM storage modules each equipped with a plug which can be couple with one of the sockets (12a, 12b, 12c); - two supports (15, 16), having respective channels for the passage of a cooling liquid; - heat diffusers each equipped with two walls (20, 21) each covering a side of one of the storage modules for absorbing heat; the heat diffusers having two opposite longitudinal ends each in thermal contact with one of the supports (15, 16); characterized in that the heat diffusers having side faces (23a, 23b) and being designed in such a way that, in use, each two adjacent heat diffusers are in thermal contact by means of the respective side faces (23a, 23b); the cooled circuit electronic board further comprises thermal conduits which are in thermal contact with the supports (15, 16), each thermal conduit located between two adjacent sockets (12a, 12b, 12c) of the support circuit board; the heat diffusers also having a lower face which is in contact with the thermal conduits, the lower face being adjacent to the sockets (12a, 12b,12c) of the support circuit board to which the storage module is coupled. - a support circuit board equipped with sockets (12a, 12b, 12c) mutually alongside each other for DIMM storage modules; - DIMM storage modules each equipped with a plug which can be couple with one of the sockets (12a, 12b, 12c); - two supports (15, 16), having respective channels for the passage of a cooling liquid; - heat diffusers each equipped with two walls (20, 21) each covering a side of one of the storage modules for absorbing heat; the heat diffusers having two opposite longitudinal ends each in thermal contact with one of the supports (15, 16); characterized in that the heat diffusers having side faces (23a, 23b) and being designed in such a way that, in use, each two adjacent heat diffusers are in thermal contact by means of the respective side faces (23a, 23b); the cooled circuit electronic board further comprises thermal conduits which are in thermal contact with the supports (15, 16), each thermal conduit located between two adjacent sockets (12a, 12b, 12c) of the support circuit board; the heat diffusers also having a lower face which is in contact with the thermal conduits, the lower face being adjacent to the sockets (12a, 12b,12c) of the support circuit board to which the storage module is coupled.