mhurhangee/patent-ind-claim-en huggingface dataset:
An orthopaedic implant , comprising: an implant body having a first surface , a second surface opposite said first surface , and a cavity formed therein that extends through said first surface and said second surface , said implant body being substantially non-porous; and a load bearing member comprising a substantially porous material held within said cavity , said load bearing member having a first contact surface extending out of said cavity and being proud of a portion of said first surface , wherein said substantially non-porous implant body is a unibody and surrounds an entire periphery of at least a portion of the load bearing member and the load bearing member comprises a metal or a polymer, wherein said load bearing member comprises at least one of polyether ether ketone (PEEK), tantalum, and titanium. and/or has a total volume and said interconnecting pores in aggregate occupy at least 60%, preferably 80% of said total volume, and said load bearing member has a second contact surface opposite said first contact surface , said load bearing member having interconnecting pores extending from said first contact surface to said second contact surface , characterized in that said thickness of said first contact surface relative to said first surface is constant throughout said first contact surface . an implant body having a first surface , a second surface opposite said first surface , and a cavity formed therein that extends through said first surface and said second surface , said implant body being substantially non-porous; and a load bearing member comprising a substantially porous material held within said cavity , said load bearing member having a first contact surface extending out of said cavity and being proud of a portion of said first surface , wherein said substantially non-porous implant body is a unibody and surrounds an entire periphery of at least a portion of the load bearing member and the load bearing member comprises a metal or a polymer, wherein said load bearing member comprises at least one of polyether ether ketone (PEEK), tantalum, and titanium. and/or has a total volume and said interconnecting pores in aggregate occupy at least 60%, preferably 80% of said total volume, and said load bearing member has a second contact surface opposite said first contact surface , said load bearing member having interconnecting pores extending from said first contact surface to said second contact surface , characterized in that said thickness of said first contact surface relative to said first surface is constant throughout said first contact surface .
A foot pedal for wireless control of a medical device, comprising -- a housing with a housing base , -- a cover element , which is mounted so as to be vertically displaceable relative to the housing base along an actuating direction (B) and/or inclinable relative to the housing base , characterized in that the housing and the housing base are detachably connected to one another by means of a magnetic release mechanism . -- a housing with a housing base , -- a cover element , which is mounted so as to be vertically displaceable relative to the housing base along an actuating direction (B) and/or inclinable relative to the housing base , characterized in that the housing and the housing base are detachably connected to one another by means of a magnetic release mechanism .
Method for determining functioning of a print head cooler , the method comprising the steps of: a. operating the print head cooler , the print head cooler comprising a first surface that is in thermal contact with a surface of a print head ; b. providing a predetermined amount of heat to the print head ; c. measuring the temperature T of the print head , d. based on the measured temperature T, determining the functioning of the print head cooler , wherein the print head is a piezo-electric print head and wherein the predetermined amount of heat is provided by applying at least one non-jetting pulse to a liquid present in the print head using an actuation means of the print head and wherein the actuation means comprise a piezoelectric element, the actuation means being configured to provide jetting pulses and non-jetting pulses. a. operating the print head cooler , the print head cooler comprising a first surface that is in thermal contact with a surface of a print head ; b. providing a predetermined amount of heat to the print head ; c. measuring the temperature T of the print head , d. based on the measured temperature T, determining the functioning of the print head cooler ,
A dental analog method for generating a dental prototype model, the method comprising: inserting a dental analog within a plurality of analog pockets within a 3D-printed test model ; identifying a preferred fitting analog pocket for the dental analog ; identifying an analog library file corresponding to the preferred fitting analog pocket, the analog library file including an analog pocket geometry associated with the preferred fitting analog pocket; and 3D printing a final dental prototype model using analog pocket geometry based on the identified analog library file. inserting a dental analog within a plurality of analog pockets within a 3D-printed test model ; identifying a preferred fitting analog pocket for the dental analog ; identifying an analog library file corresponding to the preferred fitting analog pocket, the analog library file including an analog pocket geometry associated with the preferred fitting analog pocket; and 3D printing a final dental prototype model using analog pocket geometry based on the identified analog library file.
A fermentation and aging apparatus, comprising: a fermentation tank defining an accommodation space for accommodating a beverage; a refrigerant cycle device configured to cool the fermentation tank and the beverage; a temperature sensor mounted on an outer circumferential surface of the fermentation tank ; and a controller configured to: control the refrigerant cycle device based on a temperature sensed by the temperature sensor and a predetermined storage temperature; characterized in that the controller is configured to: check a remaining amount of the beverage accommodated in the fermentation tank ; reset a storage temperature of the beverage when the checked remaining amount is lower than a predetermined reference amount; increase the storage temperature when the checked remaining amount is less than the predetermined reference amount; drive the refrigerant cycle device when the sensed temperature is equal to or greater than an upper limit of the increased storage temperature; and stop driving of the refrigerant cycle device when the sensed temperature is equal to or less than a lower limit of the increased storage temperature. a fermentation tank defining an accommodation space for accommodating a beverage; a refrigerant cycle device configured to cool the fermentation tank and the beverage; a temperature sensor mounted on an outer circumferential surface of the fermentation tank ; and a controller configured to: control the refrigerant cycle device based on a temperature sensed by the temperature sensor and a predetermined storage temperature; check a remaining amount of the beverage accommodated in the fermentation tank ; reset a storage temperature of the beverage when the checked remaining amount is lower than a predetermined reference amount; increase the storage temperature when the checked remaining amount is less than the predetermined reference amount; drive the refrigerant cycle device when the sensed temperature is equal to or greater than an upper limit of the increased storage temperature; and stop driving of the refrigerant cycle device when the sensed temperature is equal to or less than a lower limit of the increased storage temperature.
A crystalline form of (A)-2-((2-amino-7-fluoropyrido[3,2-d]pyrimidin-4-yl)amino)-2-methylhexan-1-ol gentisic acid: characterized by an X-ray powder diffraction (XRPD) pattern comprising three or more peaks at 4.4°, 8.7°, 12.9°, 14.9°, 17.3°, 19.5°, 24.8°, 25.7°, or 26.3° 2θ (± 0.2° 2θ), Compound I gentisic acid.
A method of controlling a portable electronic device having a touch screen display , the method comprising: providing a graphical user interface on the touch screen display ; detecting a touch event at a first location on the touch screen display ; displaying a navigation indicator in the graphical user interface in response to detecting the touch event at the first location; and in response to detecting movement of the touch event from the first location to a second location while touch contact is maintained on the touch screen display , changing a position of the navigation indicator in the graphical user interface by moving the navigation indicator relative to at least a portion of the graphical user interface, wherein the position of the navigation indicator is changed by a distance that is greater than a distance of movement of the touch event such that the navigation indicator moves away from the touch, and wherein a direction of change of position of the navigation indicator is based on a direction of movement of the touch event on the touch screen display , and wherein user application of a force causes actuation of a switch , thereby providing the user with a positive tactile quality during user interaction with the user interface of the portable electronic device . providing a graphical user interface on the touch screen display ; detecting a touch event at a first location on the touch screen display ; displaying a navigation indicator in the graphical user interface in response to detecting the touch event at the first location; and in response to detecting movement of the touch event from the first location to a second location while touch contact is maintained on the touch screen display , changing a position of the navigation indicator in the graphical user interface by moving the navigation indicator relative to at least a portion of the graphical user interface, wherein the position of the navigation indicator is changed by a distance that is greater than a distance of movement of the touch event such that the navigation indicator moves away from the touch, and wherein a direction of change of position of the navigation indicator is based on a direction of movement of the touch event on the touch screen display , and wherein user application of a force causes actuation of a switch , thereby providing the user with a positive tactile quality during user interaction with the user interface of the portable electronic device .
An input shaft structure for connecting a motor and a gearbox, the input shaft structure comprises a main shaft , an input end of the main shaft is located within the motor , and is connected to a rotor of the motor , an output end of the main shaft is located within the gearbox , and is connected to a driving gear of the gearbox , and all of the two ends and an middle portion of the main shaft are provided with a bearing to perform axial positioning, a hub (2-1) of the driving gear extends toward two sides, and an inner bore of the hub matches with a shaft diameter of the main shaft to perform radial positioning, to ensure a concentricity of the driving gear and the main shaft , the bearing comprises a left-end bearing , a right-end bearing and a middle bearing, the left-end bearing is fixedly installed on the gearbox housing , and the right-end bearing is fixedly installed on the motor housing , and a middle housing is provided between the motor and the gearbox , the middle bearing is fixedly installed on the middle housing , characterised in that a right end of the hub (2-1) of the driving gear presses an inner end face of the middle bearing , or a right end of the hub (2-1) of the driving gear is provided with a shaft sleeve that presses an inner end face of the middle bearing . the bearing comprises a left-end bearing , a right-end bearing and a middle bearing, the left-end bearing is fixedly installed on the gearbox housing , and the right-end bearing is fixedly installed on the motor housing , and a middle housing is provided between the motor and the gearbox , the middle bearing is fixedly installed on the middle housing , characterised in that a right end of the hub (2-1) of the driving gear presses an inner end face of the middle bearing , or a right end of the hub (2-1) of the driving gear is provided with a shaft sleeve that presses an inner end face of the middle bearing .
A device for applying a transferable substance (M) in the form of a stick, comprising a substance carrier and a protective sleeve for the substance carrier , wherein the substance carrier can be displaced relative to the protective sleeve in order to displace a free end region of the substance (M) into a freely projecting position, wherein a movement part furthermore is provided with a longitudinal slot , in which the substance carrier is guided with a peg engaging into the longitudinal slot , and the substance carrier can be moved between a retracted position and an extended position, wherein the longitudinal slot has a retaining portion assigned to the extended position, wherein the central longitudinal axis (y) of said retaining portion extends at an angle to a central longitudinal axis (z) of a movement portion of the longitudinal slot , and wherein the central longitudinal axis (y) of the retaining portion and the central longitudinal axis (z) of the movement portion include an obtuse angle (a), preferably an angle between 100 and 170 degrees, characterized in that the substance carrier is accommodated in a counter-retaining cylinder , in the inner wall of which a control groove for the peg is formed, and in that the control groove has assigned to the extended position an inclined surface that leads to the transition to the cylindrical inner surface of the counter-retaining cylinder , wherein the peg is not or only partially in overlap with the inclined surface in the extended position.
A gasket molded product constructed by a combination of a rubber only type gasket main body , and a film carrier which is made of a resin film retaining the gasket main body in a non-bonded state, the gasket molded product comprising: the film carrier having a temporal tacking portion which temporally tacking the gasket main body to the film carrier and is formed by a surface treatment, in addition to a gasket retaining portion which retains the gasket main body ; and the gasket main body having a temporal tacked portion which is temporally tacked to the temporal tacking portion ; characterized in that the temporal tacked portion has a tongue piece shape at a longitudinal or short side edge portion of the gasket main body and in that the temporal tacking portion and the temporal tacked portion are cuttable and removable after the formation of the gasket constructed by the combination of the gasket main body and the film carrier . the film carrier having a temporal tacking portion which temporally tacking the gasket main body to the film carrier and is formed by a surface treatment, in addition to a gasket retaining portion which retains the gasket main body ; and the gasket main body having a temporal tacked portion which is temporally tacked to the temporal tacking portion ; characterized in that the temporal tacked portion has a tongue piece shape at a longitudinal or short side edge portion of the gasket main body and in that the temporal tacking portion and the temporal tacked portion are cuttable and removable after the formation of the gasket constructed by the combination of the gasket main body and the film carrier .
Organic Rankine cycle system with direct exchange and in cascade comprising a high temperature organic Rankine cycle which carries out the direct heat exchange with a hot source (H) and a low temperature organic Rankine cycle in thermal communication with the high temperature cycle , each organic Rankine cycle comprising at least one feed pump (6, 6 ') for feeding a working fluid in the liquid phase, at least one heat exchanger with vaporizer function , at least one expansion turbine which expands the working fluid vapor, at least one heat exchanger with condenser function , wherein in said organic Rankine cycle system the thermal communication between the cycles takes place through at least one heat exchanger configured to use at least the condensation heat of the high temperature cycle to vaporize and/or preheat the working fluid of the low temperature organic Rankine cycle fluid and through a heat exchanger configured to operate as working fluid sub-cooler for the high temperature organic Rankine cycle and as a working fluid preheater for the low temperature organic Rankine cycle , so that the working fluid of the high temperature organic Rankine cycle starts the direct exchange with the hot source (H) at a lower temperature than the condensing temperature of the high temperature organic Rankine cycle, and said Organic Rankine cycle system being characterized by the fact that said high temperature organic Rankine cycle further comprises a regenerator and the working fluid of said high temperature organic Rankine cycle in the liquid phase is divided into two flows, one flow directed to the heat exchanger being a sub-cooler with the function of sub-cooling the working fluid of the high temperature organic Rankine cycle , the other flow directed to the heat regenerator of the high temperature organic Rankine cycle.
Method for analysing the composition of inhomogeneous bulk cargo, which is compressed into bales, characterized in that the method comprises the following steps: • recording at least one near infrared spectrum of 2, 3, 4, 5 or 6 sides of the bale, • recording an image of at least one side of the bale by way of a visual system for detecting contaminants, • analysing the recorded near infrared spectra in respect of the proportions of individual plastics types in the composition of the bale and analysing the image of at least one side of the bale recorded by way of a visual system in respect of the contaminants in the composition of the bale, and • storing the data of the near infrared spectrum and the determined composition of the bale, wherein the proportion of the individual plastics types in the composition of the bale is determined; wherein a mean value or a weighted mean value is calculated from the NIR spectra of various sides of the bale to ascertain representative values for the proportion of the individual plastics types per bale. • recording at least one near infrared spectrum of 2, 3, 4, 5 or 6 sides of the bale, • recording an image of at least one side of the bale by way of a visual system for detecting contaminants, • analysing the recorded near infrared spectra in respect of the proportions of individual plastics types in the composition of the bale and analysing the image of at least one side of the bale recorded by way of a visual system in respect of the contaminants in the composition of the bale, and • storing the data of the near infrared spectrum and the determined composition of the bale, wherein the proportion of the individual plastics types in the composition of the bale is determined; wherein a mean value or a weighted mean value is calculated from the NIR spectra of various sides of the bale to ascertain representative values for the proportion of the individual plastics types per bale. wherein the proportion of the individual plastics types in the composition of the bale is determined; wherein a mean value or a weighted mean value is calculated from the NIR spectra of various sides of the bale to ascertain representative values for the proportion of the individual plastics types per bale.
A fan housing assembly (60", 60''') of a turbofan engine comprising: a fan housing (62", 62''') located about an engine axis and defining a flowpath radially inward; and a groove structure (64", 64''') for securing a thrust reverser of the turbofan engine, wherein the groove structure comprises: a base portion concentrically located about an engine axis ; an aft leg projecting radially outward from the base portion ; and a leading leg projecting radially outward from the base portion and spaced axially from the aft leg , and wherein the base portion , the aft leg and the leading leg are made of a one-piece composite material, wherein the groove structure at least in-part located aft of and attached to the fan housing (62", 62'''), wherein the fan housing , the base portion the aft leg and the leading leg are made of a composite material, wherein an adhesive bonds the groove structure to the fan housing (62", 62'''). a fan housing (62", 62''') located about an engine axis and defining a flowpath radially inward; and a groove structure (64", 64''') for securing a thrust reverser of the turbofan engine, wherein the groove structure comprises: a base portion concentrically located about an engine axis ; an aft leg projecting radially outward from the base portion ; and a leading leg projecting radially outward from the base portion and spaced axially from the aft leg , and wherein the base portion , the aft leg and the leading leg are made of a one-piece composite material, wherein the groove structure at least in-part located aft of and attached to the fan housing (62", 62'''), wherein the fan housing , the base portion the aft leg and the leading leg are made of a composite material, wherein an adhesive bonds the groove structure to the fan housing (62", 62'''). a base portion concentrically located about an engine axis ; an aft leg projecting radially outward from the base portion ; and a leading leg projecting radially outward from the base portion and spaced axially from the aft leg , and wherein the base portion , the aft leg and the leading leg are made of a one-piece composite material, wherein the groove structure at least in-part located aft of and attached to the fan housing (62", 62'''), wherein the fan housing , the base portion the aft leg and the leading leg are made of a composite material, wherein an adhesive bonds the groove structure to the fan housing (62", 62''').
A polymer alloy fiber comprising a polypropylene (A), a polyester (B), and a styrene - ethylene - butylene - styrene copolymer (C), having a fiber diameter CV% of 0.1% to 2.5%, and containing an island component with a dispersion diameter of 1 to 1,000 nm in the fiber's transverse cross section, wherein the main constituent component of the polyester (B) is one selected from the group consisting of an aromatic dicarboxylic acid, an aromatic diol and an aromatic hydroxycarboxylic acid.
An aircraft wing comprising a high-lift system which includes at least one high-lift flap , wherein the at least one high-lift flap comprises leading and trailing edges and upper and lower surfaces defining upper and lower profile edges between the leading and trailing edges at outboard and inboard ends of the flap , and wherein the at least one high-lift flap includes an aerodynamic seal (30; 30') for reduction of noise aerodynamically generated by the at least one high-lift flap of the aircraft , and wherein the aerodynamic seal (30; 30') comprises a non-planar angulated plate structure comprised of: (i) an outwardly extended planar section (30a; 30a') having a proximal edge joined to the at least one high-lift flap at the outboard and/or inboard ends thereof, and (ii) a downwardly extended planar section (30b; 30b') joined at an angle to a distal edge of outwardly extended planar section (30a; 30a'). (i) an outwardly extended planar section (30a; 30a') having a proximal edge joined to the at least one high-lift flap at the outboard and/or inboard ends thereof, and (ii) a downwardly extended planar section (30b; 30b') joined at an angle to a distal edge of outwardly extended planar section (30a; 30a').