mhurhangee/ep-ind-claims huggingface dataset:
A milk analysis apparatus associated with a milking equipment, configured for receiving a cassette detachably inserted into the milk analysis apparatus; wherein the milk analysis apparatus comprises: a receiving section, configured to detachably receive the cassette; a housing enclosing at least a part of the milk analysis apparatus; a thermoelectric element; an interior heat exchange element, arranged adjacent to the thermoelectric element; a fan, arranged for circulating air inside the housing of the milk analysis apparatus; a temperature sensor arranged inside the housing of the milk analysis apparatus; a guided surface of the milk analysis apparatus for guiding circulating air inside the housing via the interior heat exchange element towards an outlet of the receiving section; and a control unit configured to: determine temperature inside the housing via the temperature sensor; compare the determined temperature with a temperature threshold limit; and adjust current provided to the thermoelectric element, based on the comparison, wherein the fan is a radial fan, arranged on the interior of the housing, for creating an airflow through the interior heat exchange element, thereby bringing the air to circulate within the housing. a receiving section, configured to detachably receive the cassette; a housing enclosing at least a part of the milk analysis apparatus; a thermoelectric element; an interior heat exchange element, arranged adjacent to the thermoelectric element; a fan, arranged for circulating air inside the housing of the milk analysis apparatus; a temperature sensor arranged inside the housing of the milk analysis apparatus; a guided surface of the milk analysis apparatus for guiding circulating air inside the housing via the interior heat exchange element towards an outlet of the receiving section; and a control unit configured to: determine temperature inside the housing via the temperature sensor; compare the determined temperature with a temperature threshold limit; and adjust current provided to the thermoelectric element, based on the comparison, wherein the fan is a radial fan, arranged on the interior of the housing, for creating an airflow through the interior heat exchange element, thereby bringing the air to circulate within the housing. determine temperature inside the housing via the temperature sensor; compare the determined temperature with a temperature threshold limit; and adjust current provided to the thermoelectric element, based on the comparison, wherein the fan is a radial fan, arranged on the interior of the housing, for creating an airflow through the interior heat exchange element, thereby bringing the air to circulate within the housing.
A method of actuating a valve in a subterranean well, the method characterized in comprising: storing energy as a result of a differential pressure across a closed flapper-type closure device of the valve; and releasing at least a portion of the stored energy while opening the flapper-type closure device, wherein the valve includes a member which displaces to move the flapper-type closure device between open and closed positions, a tubular opening prong assembly slidingly received within the member and a first biasing device which biases the member to extend relative to the tubular opening prong assembly, wherein the member exerts an opening force against the closed flapper-type closure device during the step of storing energy, and wherein the opening force is resisted by a differential pressure. storing energy as a result of a differential pressure across a closed flapper-type closure device of the valve; and releasing at least a portion of the stored energy while opening the flapper-type closure device, wherein the valve includes a member which displaces to move the flapper-type closure device between open and closed positions, a tubular opening prong assembly slidingly received within the member and a first biasing device which biases the member to extend relative to the tubular opening prong assembly, wherein the member exerts an opening force against the closed flapper-type closure device during the step of storing energy, and wherein the opening force is resisted by a differential pressure.
A cervical collar, comprising: an anterior portion having a rigid or semi-rigid shell anterior main support piece; a posterior portion connected to the anterior portion; the main support piece including resilient or flexible edges formed along the periphery of the main support piece and the flexible edges being integrally formed with the second component of the anterior portion, a three dimensional anatomically configured proximal support portion of the anterior portion, characterized in that the three dimensional anatomically configured proximal support portion being formed around and encompassing a supporting spring portion. an anterior portion having a rigid or semi-rigid shell anterior main support piece; a posterior portion connected to the anterior portion; the main support piece including resilient or flexible edges formed along the periphery of the main support piece and the flexible edges being integrally formed with the second component of the anterior portion, a three dimensional anatomically configured proximal support portion of the anterior portion, characterized in that the three dimensional anatomically configured proximal support portion being formed around and encompassing a supporting spring portion.
An electric heater for heating a fluid in a vehicle comprising a fluid guiding housing through which fluid flows, in the housing at least one heating unit, being accommodated, and comprising an electronics housing, wherein end sections (26, 28) of the heating unit are guided in a sealed manner through the fluid-guiding housing to an electronics housing, the heating unit is formed as a bent tubular heating unit including a tubular outer body in which a heating element electronically contacted with a control circuit accommodated in the electronics housing is embedded such that between the outer body and the heating element a clearance having the shape of an annular gap is formed which is filled with an insulator, the outer diameter of the heating element being substantially smaller than the inner diameter of the outer body, and wherein end sections (26, 28) of the heating unit are guided out of the fluid-guiding housing at an angle approximately transversely to a trough-flow direction, and wherein the heating unit is helically shaped.
A turbine airfoil comprising: an airfoil body, the airfoil body extending from a leading edge to a trailing edge, the airfoil body extending from a pressure side to a suction side, the airfoil body extending from a root portion to a tip portion; at least one internal cavity disposed within the airfoil body; at least one pedestal (58A, 60A, 84, 86) integrally formed with the airfoil body via additive manufacturing, the at least one pedestal (58A, 60A, 84, 86) protruding from an outer periphery of the airfoil body, the at least one pedestal (58A, 60A, 84, 86) structurally coupled to the airfoil body, wherein the at least one pedestal (58A, 60A, 84, 86) is oriented relative to an additive manufacturing build direction such that at least one pedestal comprises a support structure to the airfoil body; at least one film cooling hole, the at least one film cooling hole disposed entirely within the airfoil body and entirely within the at least one pedestal (58A, 60A, 84, 86), wherein the at least one film cooling hole is in fluid communication with the at least one internal cavity. an airfoil body, the airfoil body extending from a leading edge to a trailing edge, the airfoil body extending from a pressure side to a suction side, the airfoil body extending from a root portion to a tip portion; at least one internal cavity disposed within the airfoil body; at least one pedestal (58A, 60A, 84, 86) integrally formed with the airfoil body via additive manufacturing, the at least one pedestal (58A, 60A, 84, 86) protruding from an outer periphery of the airfoil body, the at least one pedestal (58A, 60A, 84, 86) structurally coupled to the airfoil body, wherein the at least one pedestal (58A, 60A, 84, 86) is oriented relative to an additive manufacturing build direction such that at least one pedestal comprises a support structure to the airfoil body; at least one film cooling hole, the at least one film cooling hole disposed entirely within the airfoil body and entirely within the at least one pedestal (58A, 60A, 84, 86), wherein the at least one film cooling hole is in fluid communication with the at least one internal cavity.
A compound of Formula or pharmaceutically acceptable salt thereof: wherein R 1 is halogen; cyano; C 1-6 straight alkyl; C 3-4 branched alkyl; C 1-6 straight alkoxy; C 3-4 branched alkoxy; methyl substituted by one or more fluoro; ethyl substituted by one or more fluoro; methoxy substituted by one or more fluoro; or ethoxy substituted by one or more fluoro.
A manual-electronic pipetting device for pipetting a medium, the pipetting device comprising: a controller; a manually displaceable actuating element; at least one piston for aspirating and discharging the medium; a motor for driving the at least one piston in response to an actuation and/or displacement of the actuating element; at least one sensor for determining a displacement of the actuating element; and a data storage; wherein the controller is configured to generate a pipetting protocol (42a-42c) based on at least one sensor signal of the at least one sensor during a displacement of the actuating element and a movement of the at least one piston in response to the displacement of the actuating element; wherein the controller is further configured to store the pipetting protocol (42a-42c) in the data storage, the pipetting protocol (42a-42c) comprising data records indicative of a position and a speed of the at least one piston during the displacement of the actuating element, wherein the controller is configured to instruct the motor, in response to a displacement of the manually displaceable actuating element in a first direction and at a speed varying during the displacement of the actuating element in the first direction, to move the at least one piston in a first direction at a speed varying during the movement of the at least one piston in the first direction, wherein the varying speed of the piston corresponds to and/or correlates with the varying speed of the actuating element. a controller; a manually displaceable actuating element; at least one piston for aspirating and discharging the medium; a motor for driving the at least one piston in response to an actuation and/or displacement of the actuating element; at least one sensor for determining a displacement of the actuating element; and a data storage; wherein the controller is configured to generate a pipetting protocol (42a-42c) based on at least one sensor signal of the at least one sensor during a displacement of the actuating element and a movement of the at least one piston in response to the displacement of the actuating element; wherein the controller is further configured to store the pipetting protocol (42a-42c) in the data storage, the pipetting protocol (42a-42c) comprising data records indicative of a position and a speed of the at least one piston during the displacement of the actuating element, wherein the controller is configured to instruct the motor, in response to a displacement of the manually displaceable actuating element in a first direction and at a speed varying during the displacement of the actuating element in the first direction, to move the at least one piston in a first direction at a speed varying during the movement of the at least one piston in the first direction, wherein the varying speed of the piston corresponds to and/or correlates with the varying speed of the actuating element.
Geared turbo fan engine with at least one coupling device rotably coupling a shaft with a gearbox in the geared turbo fan aircraft engine, wherein the coupling device comprises a connection to the shaft at a first end and a connection to the gearbox at a second end, the first and the second ends (A, B) being axially separated and one curved shape between the first end and the second end extending from the gearbox radially inwards to the shaft and the curved shape comprising at least one cross-section in the axial direction of the engine with a logarithmic profile or a power profile, wherein the curved shape of a coupling device is considered to have a logarithmic profile to which a logarithmic curve r x = A 1 + A 2 ln x can be fitted to at least a section of the median line, the inner surface shape and / or the outer surface shape with a regression coefficient of r 2 = 0,9 or more, or the curved shape of a coupling device is considered to have a power profile to which a power curve r x = A 1 x A 2 can be fitted to at least a section of the median line, the inner surface shape and / or the outer surface shape with a regression coefficient of r 2 = 0,9 or more, wherein at a torque input or torque output of the gearbox, in particular a carrier for planetary gears or a ring gear mount of the gearbox, (a) the logarithmic profile or the power profile approaches asymptotically a line (Asym) parallel to the rotational axis or (b) the logarithmic profile approaches asymptotically a line (Asym') perpendicular to the rotational axis. (a) the logarithmic profile or the power profile approaches asymptotically a line (Asym) parallel to the rotational axis or (b) the logarithmic profile approaches asymptotically a line (Asym') perpendicular to the rotational axis.
A clamping device comprising a clamping band having a first end and a second end and a tensioning head having a housing attached to the clamping band in the region of the first end and through which the second end of the clamping band is guidable, wherein the clamping band comprises an engagement geometry on at least one surface, the engagement geometry being engageable with an engagement element in the housing, wherein the engagement element is formed as a clamping screw connected to the housing by a flexible connection, the clamping screw being swivelable between a pull-through position, in which the clamping band may be pulled through the housing, and an engagement position, in which the clamping screw may engage with the engagement geometry, and wherein the clamping screw comprises a threaded section, a tip at a first end and a torsional contact geometry at a second end, wherein the flexible connection is arranged in a region of the tip of the clamping screw, characterized in that the clamping screw has an intermediate section located between the threaded section and the torsional contact geometry, wherein the intermediate section has an increasing diameter that comes to bear against an inner edge of the housing in the pull-through position, the inner edge being distal to the clamping band.
Switch comprising a semiconductor substrate and a microwave line comprising two conductive tracks (11, 12) produced on the substrate, the two conductive tracks (11, 12) being separated by a gap assuring an electrical isolation between the two conductive tracks (11, 12), an active zone of the substrate being bounded by the two conductive tracks (11, 12) and connecting the two conductive tracks (11, 12), the active zone being planar, defining a plane of the active zone, and having a centre O, the substrate being able to be made locally conductive when the active zone is illuminated by an optical control beam so as to establish an electrical contact between the two tracks (11, 12) of the microwave line, characterized in that the switch furthermore comprises a set of at least one line, called the DC line (15, 16, 17, 18), intended to convey a DC current, the DC line comprising two electrodes that are distant from each other so that an electrical isolation is assured between the two electrodes, the electrodes being connected by a separation zone of the substrate, the separation zone being able to be made conductive when it is illuminated by the optical control beam so as to establish an electrical contact between the two electrodes, the two electrodes being separated by a separation plane of the DC line, the separation plane passing through the centre O and being perpendicular to the plane of the active zone.
Method for setting the intensity of a light beam in an optical arrangement, wherein the light beam is guided through an acousto-optic filter, AOTF, and is set in its intensity in dependence on the frequency and/or the amplitude of the sound wave with which the AOTF is operated, characterized in that the amplitude of the sound wave at a specified frequency of the sound wave is selected to be greater than should be selected for reaching a first maximum of a diffraction efficiency for a specified wavelength or for a specified wavelength spectrum of the light beam, and in that the amplitude of the sound wave is additionally selected such that a value of an integral of a product of the transfer function of the AOTF and the wavelength spectrum of the light beam is greater than in the case of the size of the amplitude that should be selected for reaching the first maximum.
An optically variable device the device comprising: a control element or layer comprising a material that is permanently or temporarily electrically charged or polarized such that an electric field emanates from the material; one or more responsive optical element(s); the control element or layer and the responsive optical element(s) moveable in the device relative to one another upon application of an external influence, the relative movement and/or the change of the strength of the electric field impinging upon the responsive optical element(s) causing a change of perceivable or detectable optical properties of the device, characterised in that the external influence is in form of a mechanical force or pressure upon the device, to change the distance of separation of the control element or layer from the responsive optical element(s), and therefore to change the strength of the electric field impinging upon the responsive optical element(s) from the electrically charged or polarized material of the control element or layer. a control element or layer comprising a material that is permanently or temporarily electrically charged or polarized such that an electric field emanates from the material; one or more responsive optical element(s); the control element or layer and the responsive optical element(s) moveable in the device relative to one another upon application of an external influence, the relative movement and/or the change of the strength of the electric field impinging upon the responsive optical element(s) causing a change of perceivable or detectable optical properties of the device, characterised in that
An agricultural planter row unit comprising: a first actuator (256, 8110) connected to a first implement disposed on the agricultural planter row unit; a second actuator (266, 8120) connected to a second implement disposed on the agricultural planter row unit, the second implement being different from the first implement; a fluid control system configured to control fluid flow from a fluid source to each of the first and second actuators (256, 8110; 266, 8120), the fluid control system including: an inlet valve in a first fluid path in fluid communication with the fluid source; an outlet valve connected to the first fluid path; a first pressure sensor; a first control valve disposed in the first fluid line between the inlet valve and the first pressure sensor; a second fluid line connecting the first control valve to the first actuator (256, 8110), the first pressure sensor disposed to measure fluid pressure in the second fluid line; and a third fluid line connecting the first control valve to the second actuator (266, 8120). a first actuator (256, 8110) connected to a first implement disposed on the agricultural planter row unit; a second actuator (266, 8120) connected to a second implement disposed on the agricultural planter row unit, the second implement being different from the first implement; a fluid control system configured to control fluid flow from a fluid source to each of the first and second actuators (256, 8110; 266, 8120), the fluid control system including: an inlet valve in a first fluid path in fluid communication with the fluid source; an outlet valve connected to the first fluid path; a first pressure sensor; a first control valve disposed in the first fluid line between the inlet valve and the first pressure sensor; a second fluid line connecting the first control valve to the first actuator (256, 8110), the first pressure sensor disposed to measure fluid pressure in the second fluid line; and a third fluid line connecting the first control valve to the second actuator (266, 8120). an inlet valve in a first fluid path in fluid communication with the fluid source; an outlet valve connected to the first fluid path; a first pressure sensor; a first control valve disposed in the first fluid line between the inlet valve and the first pressure sensor; a second fluid line connecting the first control valve to the first actuator (256, 8110), the first pressure sensor disposed to measure fluid pressure in the second fluid line; and a third fluid line connecting the first control valve to the second actuator (266, 8120).