mhurhangee/patent-ind-claim-en huggingface dataset:
A fastening device characterized in a female component comprising: a female opening , said female opening having a broader female width at a first depth; and a narrower female width at a second depth; a female attachment surface comprising an interior slope rising away from said female opening ; and a female mounting surface affixed to a surface, opposite said female attachment surface , and a male component comprising: a male attachment member at least partially conforming to said interior slope ; having a broader male width larger than said narrower female width ,a narrower male width not larger than said narrower female width ; and a height that does not exceed said total depth of said female opening ; and a male mounting surface affixed to another surface, opposite said male attachment member said male attachment member is coupled to said female opening ; and said broader male width resides at a depth within said female opening closer to said female attachment surface than the distance from said second depth to said female attachment surface . a female opening , said female opening having a broader female width at a first depth; and a narrower female width at a second depth; a female attachment surface comprising an interior slope rising away from said female opening ; and a female mounting surface affixed to a surface, opposite said female attachment surface , and a male component comprising: a male attachment member at least partially conforming to said interior slope ; having a broader male width larger than said narrower female width ,a narrower male width not larger than said narrower female width ; and a height that does not exceed said total depth of said female opening ; and a male mounting surface affixed to another surface, opposite said male attachment member said male attachment member is coupled to said female opening ; and said broader male width resides at a depth within said female opening closer to said female attachment surface than the distance from said second depth to said female attachment surface . a male attachment member at least partially conforming to said interior slope ; having a broader male width larger than said narrower female width ,a narrower male width not larger than said narrower female width ; and a height that does not exceed said total depth of said female opening ; and a male mounting surface affixed to another surface, opposite said male attachment member said male attachment member is coupled to said female opening ; and said broader male width resides at a depth within said female opening closer to said female attachment surface than the distance from said second depth to said female attachment surface .
A gear pump configured for a beverage dispensing machine, comprising: - a pump chamber configured for holding a liquid; - an inlet in the pump chamber for providing the liquid to the pump; - an outlet in the pump chamber for dispensing the liquid; and - a driving gear wheel meshing with a driven gear wheel inside the pump chamber and characterised in that the driving gear wheel and the driven gear wheel are profile shifted gear wheels. - a pump chamber configured for holding a liquid; - an inlet in the pump chamber for providing the liquid to the pump; - an outlet in the pump chamber for dispensing the liquid; and - a driving gear wheel meshing with a driven gear wheel inside the pump chamber and characterised in that the driving gear wheel and the driven gear wheel are profile shifted gear wheels.
A module for a braking system, comprising: a movable housing configured to transfer a braking force from an input shaft to an output shaft ; a first movable member slidably received within the housing and connected to the output shaft ; a second movable member slidably received within the housing ; a first resilient member biased between the first movable member and the second movable member , such that a force applied to the second movable member is applied to the first movable member via the first resilient member ; and a second resilient member biased between the second movable member and the housing , such that a force applied to the housing is applied to the second movable member via the second resilient member ; wherein the first resilient member is configured to yield or compress upon application of a first, relatively low braking force to the input shaft , and the second resilient member is configured to yield or compress after the first resilient member and upon application of a second, relatively high braking force to the input shaft , wherein the relatively low braking force is less than the relatively high braking force. a movable housing configured to transfer a braking force from an input shaft to an output shaft ; a first movable member slidably received within the housing and connected to the output shaft ; a second movable member slidably received within the housing ; a first resilient member biased between the first movable member and the second movable member , such that a force applied to the second movable member is applied to the first movable member via the first resilient member ; and a second resilient member biased between the second movable member and the housing , such that a force applied to the housing is applied to the second movable member via the second resilient member ; wherein the first resilient member is configured to yield or compress upon application of a first, relatively low braking force to the input shaft , and the second resilient member is configured to yield or compress after the first resilient member and upon application of a second, relatively high braking force to the input shaft , wherein the relatively low braking force is less than the relatively high braking force.
A method for remote detection of compressor surge of a fleet of turbine engines, said method comprising: monitoring operating parameter measurements indicative of an operational condition and a thermodynamic condition of each turbine engine of the fleet of turbine engines, the operational condition including a compressor exit condition; wherein monitoring an operating parameter measurement comprises monitoring the operating parameter with a plurality of sensors coupled to each turbine engine of the fleet of turbine engines; continuously transmitting, to an on-site monitoring device , the operating parameter measurements indicative of operational and thermodynamic conditions; compiling the monitored operating parameter measurements into a periodic snapshot of the operating parameter measurements; transmitting, to a remote monitoring unit , the snapshot of operating parameter measurements; performing a data quality and out-of-range sensor check on the transmitted snapshot of operating parameter measurements to determine if the plurality of sensors are operating properly; and detecting compressor surge in each turbine engine of the fleet of turbine engines based on the transmitted snapshot of operating parameter measurements. monitoring operating parameter measurements indicative of an operational condition and a thermodynamic condition of each turbine engine of the fleet of turbine engines, the operational condition including a compressor exit condition; wherein monitoring an operating parameter measurement comprises monitoring the operating parameter with a plurality of sensors coupled to each turbine engine of the fleet of turbine engines; continuously transmitting, to an on-site monitoring device , the operating parameter measurements indicative of operational and thermodynamic conditions; compiling the monitored operating parameter measurements into a periodic snapshot of the operating parameter measurements; transmitting, to a remote monitoring unit , the snapshot of operating parameter measurements; performing a data quality and out-of-range sensor check on the transmitted snapshot of operating parameter measurements to determine if the plurality of sensors are operating properly; and detecting compressor surge in each turbine engine of the fleet of turbine engines based on the transmitted snapshot of operating parameter measurements.
An operable panel for an appliance , the operable panel comprising: a metallic outer wrapper having a perimetrical wrapper edge that at least partially defines a perimetrical breaker channel ; an inner liner ; a plurality of corner brackets disposed proximate the perimetrical wrapper edge ; a trim breaker adhered to the metallic outer wrapper and the plurality of corner brackets at the perimetrical breaker channel and having a liner channel that receives a portion of the inner liner , the trim breaker extending between the inner liner and the outer wrapper and an insulation material disposed within an insulating cavity defined between the inner liner and the outer wrapper , characterised in that each corner bracket cooperates with the perimetrical wrapper edge to fully define the perimetrical breaker channel . a metallic outer wrapper having a perimetrical wrapper edge that at least partially defines a perimetrical breaker channel ; an inner liner ; a plurality of corner brackets disposed proximate the perimetrical wrapper edge ; a trim breaker adhered to the metallic outer wrapper and the plurality of corner brackets at the perimetrical breaker channel and having a liner channel that receives a portion of the inner liner , the trim breaker extending between the inner liner and the outer wrapper and an insulation material disposed within an insulating cavity defined between the inner liner and the outer wrapper , characterised in that each corner bracket cooperates with the perimetrical wrapper edge to fully define the perimetrical breaker channel .
A tuck-in head for an air-injection type tuck-in device, wherein the tuck-in head has a slit and the air-injection type tuck-in device is configured to tuck-in an end portion of a weft introduced between opposing upper and lower slit surfaces of the slit , by air injected from a tuck-in nozzle, the tuck-in head comprising: a first member constituting a part including the upper slit surface ; and a second member formed separately from the first member and constituting a part including the lower slit surface , wherein the tuck-in head is constructed by combining at least the first member and the second member with each other, wherein at least one of the first member and the second member has a part forming a bottom surface of the slit , characterized in that a convex portion is formed on at least one of the first member and the second member and a concave portion is formed on the other, wherein the convex portion is fitted in the concave portion , wherein the first member and the second member are combined with each other in a state where the convex portion is fitted in the concave portion . a first member constituting a part including the upper slit surface ; and a second member formed separately from the first member and constituting a part including the lower slit surface , wherein the tuck-in head is constructed by combining at least the first member and the second member with each other,
Method for detecting icing conditions for an aircraft, characterized in that it comprises the following steps: - measurement of parameters of systems of the aircraft with the exception of ice-detecting external probes, the said systems being unsusceptible to degraded operation in the presence of ice and the said parameters being symptomatic of the presence of ice on the aircraft; - transformation of the measurements of these parameters into P -tuples of values of explanatory variables which explain the icing conditions; - classification of the measurements by at least one classifier previously trained in a supervised manner, the said classifier providing a prediction of membership in a class of icing conditions. - measurement of parameters of systems of the aircraft with the exception of ice-detecting external probes, the said systems being unsusceptible to degraded operation in the presence of ice and the said parameters being symptomatic of the presence of ice on the aircraft; - transformation of the measurements of these parameters into P -tuples of values of explanatory variables which explain the icing conditions; - classification of the measurements by at least one classifier previously trained in a supervised manner, the said classifier providing a prediction of membership in a class of icing conditions.
A method of managing a user interface of a teleoperated surgical system, the method comprising: receiving at a first user interface an environmental variable, transmitted from a second user interface and describing operation of a remote virtual instrument in the second user interface, the environmental variable being a data structure of one or more n-tuples, wherein the remote virtual instrument is operated by a user of the second user interface and the environmental variable includes a camera control variable; rendering a local scene at the first user interface using the camera control variable, the local scene representing a state of operation of the first user interface, the local scene representing a virtual surgical site including a local virtual instrument, wherein the local virtual instrument is controlled by the user of the first user interface; rendering a remote scene at the first user interface , the remote scene representing a state of operation of the second user interface, the remote scene representing the virtual surgical site including the remote virtual instrument, wherein the remote scene is generated based at least in part on the environmental variable; compositing the local scene and the remote scene to produce a virtual composite scene; and presenting the virtual composite scene to the user of the first user interface , wherein the virtual composite scene includes the local scene and the remote scene, wherein the remote scene is altered using graphical manipulations to distinguish the local virtual instrument from the remote virtual instrument. receiving at a first user interface an environmental variable, transmitted from a second user interface and describing operation of a remote virtual instrument in the second user interface, the environmental variable being a data structure of one or more n-tuples, wherein the remote virtual instrument is operated by a user of the second user interface and the environmental variable includes a camera control variable; rendering a local scene at the first user interface using the camera control variable, the local scene representing a state of operation of the first user interface, the local scene representing a virtual surgical site including a local virtual instrument, wherein the local virtual instrument is controlled by the user of the first user interface; rendering a remote scene at the first user interface , the remote scene representing a state of operation of the second user interface, the remote scene representing the virtual surgical site including the remote virtual instrument, wherein the remote scene is generated based at least in part on the environmental variable; compositing the local scene and the remote scene to produce a virtual composite scene; and presenting the virtual composite scene to the user of the first user interface , wherein the virtual composite scene includes the local scene and the remote scene, wherein the remote scene is altered using graphical manipulations to distinguish the local virtual instrument from the remote virtual instrument.
A continuous and uniform conditioning device of ground olive mass by means of power ultrasound, intended to heat an olive mass resulting from milling and circulating through the inside of a duct , the device comprising: - an ultrasound applicator for applying power ultrasound to the olive mass, - a first temperature sensor for determining the temperature of the olive mass at a time immediately prior to applying ultrasound, - a physical and chemical sensor for determining physical and chemical parameters of the olive mass prior to applying ultrasound, - a flow meter for regulating the flow of olive mass circulating through the duct , - a second temperature sensor for determining the temperature of the olive mass at a time immediately after applying ultrasound, and - a controller that acts on: - the ultrasound applicator to modify the frequency and the power of the power ultrasound applied to the olive mass, and - the flow meter for regulating the flow of olive mass circulating through the duct , based on the determinations obtained by the first and the second temperature sensor and the physical and chemical sensor. - an ultrasound applicator for applying power ultrasound to the olive mass, - a first temperature sensor for determining the temperature of the olive mass at a time immediately prior to applying ultrasound, - a physical and chemical sensor for determining physical and chemical parameters of the olive mass prior to applying ultrasound, - a flow meter for regulating the flow of olive mass circulating through the duct , - a second temperature sensor for determining the temperature of the olive mass at a time immediately after applying ultrasound, and - a controller that acts on: - the ultrasound applicator to modify the frequency and the power of the power ultrasound applied to the olive mass, and - the flow meter for regulating the flow of olive mass circulating through the duct , - the ultrasound applicator to modify the frequency and the power of the power ultrasound applied to the olive mass, and - the flow meter for regulating the flow of olive mass circulating through the duct ,
An agricultural vehicle header comprising: a frame including a top frame member having a torsional centroid (CM), a bottom frame member positioned at an elevation below the top frame member , and at least one supporting member extending between the top frame member and the bottom frame member ; a reel mounting portion defined on the top frame member to which a reel is either directly or indirectly mountable, the reel mounting portion being disposed at a location that is forward of the top frame torsional centroid (CM), as viewed in a forward direction of travel of an agricultural vehicle to which the agricultural vehicle header is attachable; characterized in that the agricultural vehicle header further comprises: a first gauge wheel mounting portion defined on the top frame member at a location that is forward of the torsional centroid (CM), as viewed in the forward direction (F) of travel; and a second gauge wheel mounting portion defined on the bottom frame member , the first and second gauge wheel mounting portions being configured to be connected either directly or indirectly to a gauge wheel . a frame including a top frame member having a torsional centroid (CM), a bottom frame member positioned at an elevation below the top frame member , and at least one supporting member extending between the top frame member and the bottom frame member ; a reel mounting portion defined on the top frame member to which a reel is either directly or indirectly mountable, the reel mounting portion being disposed at a location that is forward of the top frame torsional centroid (CM), as viewed in a forward direction of travel of an agricultural vehicle to which the agricultural vehicle header is attachable; characterized in that the agricultural vehicle header further comprises: a first gauge wheel mounting portion defined on the top frame member at a location that is forward of the torsional centroid (CM), as viewed in the forward direction (F) of travel; and a second gauge wheel mounting portion defined on the bottom frame member , the first and second gauge wheel mounting portions being configured to be connected either directly or indirectly to a gauge wheel . a first gauge wheel mounting portion defined on the top frame member at a location that is forward of the torsional centroid (CM), as viewed in the forward direction (F) of travel; and a second gauge wheel mounting portion defined on the bottom frame member , the first and second gauge wheel mounting portions being configured to be connected either directly or indirectly to a gauge wheel .
A method of controlling a wind turbine , wherein a minimum required hydraulic pressure represents a hydraulic pressure of at least one accumulator of the wind turbine which is required to pitch at least one blade of the wind turbine which is associated with the accumulator into a stop position of the wind turbine , wherein a pitch angle represents a pitch angle of a normal of the at least one blade of the wind turbine relative to an incoming wind direction, wherein the method comprises determining a minimum requirement function of the minimum required hydraulic pressure dependent on the pitch angle, detecting a current hydraulic pressure in the at least one accumulator at a current pitch angle of the at least one blade , controlling the wind turbine such that the current hydraulic pressure is above the minimum required hydraulic pressure at the current pitch angle. wherein a minimum required hydraulic pressure represents a hydraulic pressure of at least one accumulator of the wind turbine which is required to pitch at least one blade of the wind turbine which is associated with the accumulator into a stop position of the wind turbine , wherein a pitch angle represents a pitch angle of a normal of the at least one blade of the wind turbine relative to an incoming wind direction, wherein the method comprises determining a minimum requirement function of the minimum required hydraulic pressure dependent on the pitch angle, detecting a current hydraulic pressure in the at least one accumulator at a current pitch angle of the at least one blade , controlling the wind turbine such that the current hydraulic pressure is above the minimum required hydraulic pressure at the current pitch angle. determining a minimum requirement function of the minimum required hydraulic pressure dependent on the pitch angle, detecting a current hydraulic pressure in the at least one accumulator at a current pitch angle of the at least one blade , controlling the wind turbine such that the current hydraulic pressure is above the minimum required hydraulic pressure at the current pitch angle.