mhurhangee/ep-ind-claims huggingface dataset:
A surgical cutting instrument having a proximal end, a distal end, opposing sides, and a longitudinal axis and comprising: (i) an instrument body; (ii) a pivotal cutting arm having a pinion with an axis of rotation, the pinion being integrally formed with the pivotal cutting arm, wherein the pivotal cutting arm is mounted for rotation relative to the instrument body about a pivot axis, the pivot axis being the axis of rotation of the pinion, so that, rotation of the pinion about the pivot axis, causes the pivotal cutting arm to pivot relative to the instrument body; (iii) a cutting blade on the pivotal cutting arm for resecting tissue wherein the cutting blade is a u-shaped blade; (iv) a rack that can be moved in a reciprocating linear motion forward towards the distal end and rearwards toward the proximal end, the rack and the pinion being meshed together to forming a rack and pinion mechanism so that linear motion of the rack effects pivotal movement of the pivotal cutting arm about the pivot axis, so that the cutting arm can be rotated for cutting in two opposing directions about its axis of rotation. (i) an instrument body; (ii) a pivotal cutting arm having a pinion with an axis of rotation, the pinion being integrally formed with the pivotal cutting arm, wherein the pivotal cutting arm is mounted for rotation relative to the instrument body about a pivot axis, the pivot axis being the axis of rotation of the pinion, so that, rotation of the pinion about the pivot axis, causes the pivotal cutting arm to pivot relative to the instrument body; (iii) a cutting blade on the pivotal cutting arm for resecting tissue wherein the cutting blade is a u-shaped blade; (iv) a rack that can be moved in a reciprocating linear motion forward towards the distal end and rearwards toward the proximal end, the rack and the pinion being meshed together to forming a rack and pinion mechanism so that linear motion of the rack effects pivotal movement of the pivotal cutting arm about the pivot axis, so that the cutting arm can be rotated for cutting in two opposing directions about its axis of rotation.
A coat drying device configured to dry wet-coated film applied to a coating surface of a continuously transported coating object, the coating object comprising a first part, and a second part having a greater heat capacity than a heat capacity of the first part, and the coat drying device comprising: a drying furnace main body; and a controller; the drying furnace main body including a transport conveyor configured to transport the coating object in a conveyance direction, a pre-drying unit including a heat source and a heat source moving device, the heat source being configured to emit thermal energy, the heat source moving device being configured to movably hold the heat source, and a temperature raising unit and a temperature holding unit configured to blow hot air from a hot air generation supply device onto all of the coating object and dry the coated film applied to the coating object, the temperature raising unit and the temperature holding unit being disposed downstream of the pre-drying unit in the conveyance direction; characterized in that the controller is configured to control the pre-drying unit such that the heat source moving means moves the heat source to the second part and holds the heat source such that a spacing between the second part and the heat source is maintained within a predetermined range before the temperature raising unit and the temperature holding unit blow hot air from the hot air generation supply device onto all of the coating object, thereby providing the thermal energy predominately to a coating surface of the second part to dry the wet-coated film on the coating surface of the second part. a drying furnace main body; and a controller; the drying furnace main body including a transport conveyor configured to transport the coating object in a conveyance direction, a pre-drying unit including a heat source and a heat source moving device, the heat source being configured to emit thermal energy, the heat source moving device being configured to movably hold the heat source, and a temperature raising unit and a temperature holding unit configured to blow hot air from a hot air generation supply device onto all of the coating object and dry the coated film applied to the coating object, the temperature raising unit and the temperature holding unit being disposed downstream of the pre-drying unit in the conveyance direction; a transport conveyor configured to transport the coating object in a conveyance direction, a pre-drying unit including a heat source and a heat source moving device, the heat source being configured to emit thermal energy, the heat source moving device being configured to movably hold the heat source, and a temperature raising unit and a temperature holding unit configured to blow hot air from a hot air generation supply device onto all of the coating object and dry the coated film applied to the coating object, the temperature raising unit and the temperature holding unit being disposed downstream of the pre-drying unit in the conveyance direction;
A lithographic apparatus comprising: a substrate table for holding a substrate; a projection system for projecting a radiation beam having a patterned cross-section onto a target portion of the substrate; and a liquid supply system for at least partly filling a space between the projection system and the substrate with a liquid to form a liquid reservoir, said liquid supply system comprising: an inlet (22, 23, 33) for supplying liquid to the space; and a seal member extending along at least a part of the boundary of the space between the projection system and the substrate table, characterized in that the inlet (22, 23, 33) is adjacent to the inner circumference of the seal member and is directed towards the target portion of the substrate, and in that the lithographic apparatus further comprising a chamber through which the liquid is supplied to the inlet (22, 23, 33), the chamber having a larger cross-sectional area than the cross-sectional area of the inlet (22, 23, 33). a substrate table for holding a substrate; a projection system for projecting a radiation beam having a patterned cross-section onto a target portion of the substrate; and a liquid supply system for at least partly filling a space between the projection system and the substrate with a liquid to form a liquid reservoir, said liquid supply system comprising: an inlet (22, 23, 33) for supplying liquid to the space; and a seal member extending along at least a part of the boundary of the space between the projection system and the substrate table, an inlet (22, 23, 33) for supplying liquid to the space; and a seal member extending along at least a part of the boundary of the space between the projection system and the substrate table, characterized in that the inlet (22, 23, 33) is adjacent to the inner circumference of the seal member and is directed towards the target portion of the substrate, and in that
Use of a culture medium for distinguishing: - a first group of ESBL E.coli bacteria - a second group of ESBL KESC bacteria - a third group of bacteria that is not resistant to beta-lactamines the culture medium comprising: - a first substrate for detecting a beta-glucuronidase or beta-galactosidase enzymatic activity - a second substrate for detecting a beta-glucosidase or tryptophanase or desaminase activity - cefpodoxime - cloxacillin. - a first group of ESBL E.coli bacteria - a second group of ESBL KESC bacteria - a third group of bacteria that is not resistant to beta-lactamines - a first substrate for detecting a beta-glucuronidase or beta-galactosidase enzymatic activity - a second substrate for detecting a beta-glucosidase or tryptophanase or desaminase activity - cefpodoxime - cloxacillin.
A method comprising: identifying a location of potential or actual structural weakness in a body of a turbomachine component, the body including a first material having a first thermal expansion coefficient; forming a slot in the location of the body, the slot extending at least partially through a wall of the turbomachine component; and bonding an insert to the body at the slot to form a composite component, the insert including a second material having a second thermal expansion coefficient, the second thermal expansion coefficient differing from the first thermal expansion coefficient by up to approximately ten percent, the second material consisting of a nickel-chrome-molybdenum alloy, wherein after the bonding the insert is configured to reduce the potential or actual structural weakness in the body, characterized in that the identifying includes performing a finite element analysis on a data file representing the turbomachine component to determine the location of the potential or actual structural weakness. identifying a location of potential or actual structural weakness in a body of a turbomachine component, the body including a first material having a first thermal expansion coefficient; forming a slot in the location of the body, the slot extending at least partially through a wall of the turbomachine component; and bonding an insert to the body at the slot to form a composite component, the insert including a second material having a second thermal expansion coefficient, the second thermal expansion coefficient differing from the first thermal expansion coefficient by up to approximately ten percent, the second material consisting of a nickel-chrome-molybdenum alloy, wherein after the bonding the insert is configured to reduce the potential or actual structural weakness in the body,
Charge air cooler having a heat transfer block, an air inlet box which is arranged upstream in the flow direction and an air outlet box which is arranged downstream of the heat transfer block in the flow direction and having at least one condensate collector for collecting in particular condensate which has been separated in the charge air cooler and/or for collecting moisture, wherein the condensate collector is arranged in a region of the charge air cooler which is accessible to a charge air flow, wherein - such a condensate collector is arranged both upstream and downstream of the heat transfer block, - in the condensate collectors there is arranged a drying agent which can absorb condensate and/or moisture, store it and return it to the charge air flow again, characterised in that - there extends through the drying agent at least one cooling medium channel through which hot cooling medium flows in order to regenerate the drying agent, and/or - in that a bypass pipe leads to the condensate collector and warm charge air can thereby be blown into the drying medium. - such a condensate collector is arranged both upstream and downstream of the heat transfer block, - in the condensate collectors there is arranged a drying agent which can absorb condensate and/or moisture, store it and return it to the charge air flow again, - there extends through the drying agent at least one cooling medium channel through which hot cooling medium flows in order to regenerate the drying agent, and/or - in that a bypass pipe leads to the condensate collector and warm charge air can thereby be blown into the drying medium.
Method for producing a foodstuff, in particular sausages, produced by coextrusion, the method comprising the steps of: - extruding a paste mass, - coextruding a casing, feeding a bonding agent between paste mass and coextruded casing, characterized in that the casing is extruded onto a filling tube and moved a distance towards the end of the filling tube, wherein the bonding agent is introduced as sliding agent between the casing and the filling tube and the paste mass is ejected through the filling tube into the casing. - extruding a paste mass, - coextruding a casing, feeding a bonding agent between paste mass and coextruded casing, characterized in that the casing is extruded onto a filling tube and moved a distance towards the end of the filling tube, wherein the bonding agent is introduced as sliding agent between the casing and the filling tube and the paste mass is ejected through the filling tube into the casing.
Submersible power plant for generating electrical power, the submersible power plant comprising a structure and a vehicle comprising at least one wing, the vehicle being arranged to be secured to the structure by means of at least one tether; the vehicle being arranged to move in a predetermined trajectory by means of a fluid stream passing the wing, the submersible power plant comprises at least a first turbine, a second turbine and a third turbine being arranged to be attached to the wing of the vehicle, the first turbine is connected to a first generator, the second turbine is connected to a second generator, the third turbine is connected to a third generator, characterized in that at least one of the first turbine, the second turbine and the third turbine is attached to the vehicle on a top surface of the wing, and at least one of the first turbine, the second turbine and the third turbine is attached to a bottom surface of the wing, where said first generator, second generator and third generator are arranged to be able to produce different fluid dynamics pressures exerted on the respective first, second and third turbines (6, 8, 10) by means of torque control, and in that the at least first, second and third turbines (6, 8, 10) have a turbine function for generating electrical power and a thruster function for propelling the vehicle forwards or backwards, the thruster function being produced by that at least one of the first, second and third generators (12, 13, 14) are run in forward or in reverse.
System comprising an apparatus for repairing surfaces in an aircraft cabin and comprising a transport vehicle, wherein the apparatus has a paint-spray gun, has a paint container and has a pressurized-air source, wherein the pressurized-air source is in the form of a compressed-air container, wherein provision is made of a pressure regulator for setting a defined air volumetric flow rate, wherein the apparatus has a liquid separator between the compressed-air container and the paint-spray gun, wherein the transport vehicle has a pressurized-air generator, which is configured for filling the compressed-air container with pressurized air, and a connector for filling of the compressed-air container, and wherein provision is made of a moisture separator between the pressurized-air generator and the connector for filling of the compressed-air container.
A detecting apparatus, configured to detect a fluid leakage in a system comprising a fluid use apparatus (40A, 40B, 50A, 50B, 60A, 60B, 70A, 70B, 80A, 80B) configured to use a fluid and a fluid supply apparatus configured to supply the fluid to the fluid use apparatus (40A, 40B, 50A, 50B, 60A, 60B, 70A, 70B, 80A, 80B), wherein a detector is configured to detect the fluid leakage in the system based on power consumption of the fluid supply apparatus, a valve (110A, 110B, 110C, 111A, 111B) being provided in a pipe line through which the fluid flows to the fluid use apparatus (40A, 40B, 50A, 50B, 60A, 60B, 70A, 70B, 80A, 80B), and the detecting apparatus further comprising a controller (92, 94) configured to close the valve (110A, 110, 110C, 111A, 111B) located on the upstream side of the fluid use apparatus (40A, 40B, 50A, 50B, 60A, 60B, 70A, 70B, 80A, 80B) when an operation of the fluid use apparatus (40A, 40B, 50A, 50B, 60A, 60B, 70A, 70B, 80A, 80B) is stopped, and the detector being configured to detect that the fluid leakage is generated in the pipe line on a downstream side of the valve (110A, 110B, 110C, 111A, 111B) characterized in that it is based on a first feature quantity indicating a mutual relationship between the power consumption of the fluid supply apparatus before the closing of the valve (110A, 110B, 110C, 111A, 111B) and the power consumption of the fluid supply apparatus after the closing of the valve (110A, 1108, 110C, 111A, 111B).
Hydraulically controllable drainage mounting for a flushing tank, comprising a valve body comprising a sealing element cooperating with a valve seating, and a float, wherein the valve body with the sealing element is movable from the valve seat along a movement axis from a resting position to a flushing position and from the flushing position to the resting position, and a float chamber with an opening, through which the valve body extends, wherein the float is movable within the float chamber along the movement axis and hydraulically cooperates therewith, wherein the float chamber comprises a full amount control passage and a partial amount control passage, through which, as soon as a flushing water level surrounding the drainage mounting has sunk to the level of the corresponding passage (7, 8), air from areas outside of the float chamber can enter into the float chamber, such that the pressure conditions between the float chamber and the regions outside of the float chamber are compensable, wherein the float is movable from the flushing position into the resting position during compensation of the pressure conditions, wherein the drainage mounting further comprises a partial amount control unit with a shut-off member for the active control of the partial amount control passage, characterized in that in the region of the partial amount control passage an adjusting element is arranged, with which the height which during the partial amount flushing is relevant for the closing movement of the partial amount control passage can be adjusted.
A computer-implemented method, comprising: identifying by a client device a gesture made with the client device; in response to the gesture being identified, activating a microphone of the client device to sense one or more audible sounds; receiving by a computing system, audio information, wherein the audio information is based on sensing of one or more audible sounds by the client device; identifying, by the computing system, one or more voice profiles, wherein each of the voice profiles is associated with an individual and indicates one or more voice characteristics of the associated individual; determining, by the computing system, at least a given voice profile of the one or more voice profiles matches the audio information; phonetically analyzing, by the computing system, the audio information to determine one or more spoken terms of the audible sounds sensed by the client device; determining, by the computing system, co-presence of the user with at least the individual associated with the given voice profile based on determining the given voice profile matches the audio information and based on the determined one or more spoken terms of the audible sounds sensed by the client device; identifying, by the computing system, an action that includes a trigger based on co-presence of the user and the individual associated with the given voice profile; and invoking, by the computing system, the action based on the determined co-presence of the user with at least the individual associated with the given voice profile. identifying by a client device a gesture made with the client device; in response to the gesture being identified, activating a microphone of the client device to sense one or more audible sounds; receiving by a computing system, audio information, wherein the audio information is based on sensing of one or more audible sounds by the client device; identifying, by the computing system, one or more voice profiles, wherein each of the voice profiles is associated with an individual and indicates one or more voice characteristics of the associated individual; determining, by the computing system, at least a given voice profile of the one or more voice profiles matches the audio information; phonetically analyzing, by the computing system, the audio information to determine one or more spoken terms of the audible sounds sensed by the client device; determining, by the computing system, co-presence of the user with at least the individual associated with the given voice profile based on determining the given voice profile matches the audio information and based on the determined one or more spoken terms of the audible sounds sensed by the client device; identifying, by the computing system, an action that includes a trigger based on co-presence of the user and the individual associated with the given voice profile; and invoking, by the computing system, the action based on the determined co-presence of the user with at least the individual associated with the given voice profile.
A smelting apparatus, including: a smelting vessel, that includes a smelting chamber adapted to contain a bath of molten metal and slag, and a smelt cyclone for pre-treating a metalliferous feed material, that is positioned above and communicates directly with the smelting vessel, and an off-gas duct extending from the smelt cyclone for discharging an off-gas from, the smelt cyclone, characterised in that the off-gas duct having an inlet section that extends upwardly from the smelt cyclone, wherein the inlet section includes an upward extension of the cyclone chamber that defines an upstream leg of the inlet section, and a downstream leg of the inlet section, with the downstream leg extending at an angle to the upstream leg so that the off-gas undergoes a substantial change in direction as it moves through a bend that interconnects the upstream and the downstream legs (21, 22), wherein the inlet section is in the form of a dog-leg bend that defines an included angle of at least 90° typically 90-120°, between the upstream leg of the inlet section and the downstream leg of the inlet section, with the bend causing off-gas to undergo the substantial change of direction through the angle as it flows through the inlet section into the off-gas duct. a smelting vessel, that includes a smelting chamber adapted to contain a bath of molten metal and slag, and a smelt cyclone for pre-treating a metalliferous feed material, that is positioned above and communicates directly with the smelting vessel, and an off-gas duct extending from the smelt cyclone for discharging an off-gas from, the smelt cyclone, characterised in that the off-gas duct having an inlet section that extends upwardly from the smelt cyclone, wherein the inlet section includes an upward extension of the cyclone chamber that defines an upstream leg of the inlet section, and a downstream leg of the inlet section, with the downstream leg extending at an angle to the upstream leg so that the off-gas undergoes a substantial change in direction as it moves through a bend that interconnects the upstream and the downstream legs (21, 22), an upward extension of the cyclone chamber that defines an upstream leg of the inlet section, and a downstream leg of the inlet section, with the downstream leg extending at an angle to the upstream leg so that the off-gas undergoes a substantial change in direction as it moves through a bend that interconnects the upstream and the downstream legs (21, 22), wherein the inlet section is in the form of a dog-leg bend that defines an included angle of at least 90° typically 90-120°, between the upstream leg of the inlet section and the downstream leg of the inlet section, with the bend causing off-gas to undergo the substantial change of direction through the angle as it flows through the inlet section into the off-gas duct.