mhurhangee/patent-ind-claim-en huggingface dataset:
Method for dressing a honing tool which is intended for the fine machining of the teeth of a toothed wheel using a dressing tool which, during the dressing operation with the honing tool which is intended to be dressed, continuously rolls at an axial intersection angle (∑) so that teeth which are formed on the dressing tool move into engagement with teeth which are formed on the honing tool and which each have an upper face which is intended to be dressed and tooth flanks which are also intended to be dressed, characterised in that in at least one positioning of the dressing tool both the upper faces and the tooth flanks of the honing tool are processed, and in that , using tooth base rounded portions which are provided on the teeth of the dressing tool , step-free transitions from the tooth flanks to the upper faces are modelled on the honing tool .
An anchoring device for anchoring an implantable medical device to tissue of a patient, the anchoring device comprising: - a mount , wherein the mount is an annular member; and - at least one tine connected to the mount and protruding from the mount , characterized in that the mount comprises at least one marker that can be detected by an imaging method, wherein the at least one marker is a radiopaque marker that is configured to be detected by an x-ray imaging method. - a mount , wherein the mount is an annular member; and - at least one tine connected to the mount and protruding from the mount , characterized in that the mount comprises at least one marker that can be detected by an imaging method, wherein the at least one marker is a radiopaque marker that is configured to be detected by an x-ray imaging method.
Electrical arrangement for an aircraft fuselage , having: - a fuselage component , - at least one electrical consumer , and - a conductive electrical connection element , wherein the fuselage component has an inside and an outside , wherein an opening through which the electrical connection element extends is arranged in the fuselage component , characterized in that the electrical connection element has a plate-shaped bearing section and a feedthrough section extending transverse to the bearing section , wherein the bearing section is attached flush to the outside or the inside of the fuselage component and the feedthrough section runs from the bearing section through the opening and extends beyond the opening , wherein the electrical connection element is electrically insulated from the opening and the fuselage component and is able to be connected to a voltage supply arranged on the inside , and wherein the at least one electrical consumer is arranged on the outside of the fuselage component and is electrically connected to that part of the connection element projecting towards the outside of the fuselage . - a fuselage component , - at least one electrical consumer , and - a conductive electrical connection element , wherein the fuselage component has an inside and an outside , wherein an opening through which the electrical connection element extends is arranged in the fuselage component , characterized in that the electrical connection element has a plate-shaped bearing section and a feedthrough section extending transverse to the bearing section , wherein the bearing section is attached flush to the outside or the inside of the fuselage component and the feedthrough section runs from the bearing section through the opening and extends beyond the opening , wherein the electrical connection element is electrically insulated from the opening and the fuselage component and is able to be connected to a voltage supply arranged on the inside , and wherein the at least one electrical consumer is arranged on the outside of the fuselage component and is electrically connected to that part of the connection element projecting towards the outside of the fuselage .
A process for modifying an expandable curing bladder for a tire, which bladder has a surface intended to come into contact with a tire casing, which process comprises the following steps: a) applying to said surface a layer of a silicone rubber composition, the silicone rubber composition comprising a first liquid organopolysiloxane having repeating units (R 2 SiO 2/2 ) and having two chain ends each bearing an alkenyl group, a second liquid organopolysiloxane having repeating units (R'HSiO 2/2 ) and having two chain ends each bearing a group SiR' 3 O 1/2 and a photoactivatable hydrosilylation catalyst, the symbols R, which may be identical or different, representing an alkyl, aryl or aralkyl group, the symbols R', which may be identical or different, representing an alkyl group, the ratio between the number of units (R'HSiO 2/2 ) and the number of alkenyl groups being greater than 1, b) exposing the silicone rubber composition covering said surface to irradiation with ultraviolet-visible light. a) applying to said surface a layer of a silicone rubber composition, the silicone rubber composition comprising a first liquid organopolysiloxane having repeating units (R 2 SiO 2/2 ) and having two chain ends each bearing an alkenyl group, a second liquid organopolysiloxane having repeating units (R'HSiO 2/2 ) and having two chain ends each bearing a group SiR' 3 O 1/2 and a photoactivatable hydrosilylation catalyst, the symbols R, which may be identical or different, representing an alkyl, aryl or aralkyl group, the symbols R', which may be identical or different, representing an alkyl group, the ratio between the number of units (R'HSiO 2/2 ) and the number of alkenyl groups being greater than 1, b) exposing the silicone rubber composition covering said surface to irradiation with ultraviolet-visible light.
A variable geometry turbocharger having a nozzle mechanism capable of changing a flow path area of exhaust gas with an actuator, comprising: a housing to which a reaction force of the actuator is applicable; a piezoelectric element interposed between the actuator and the housing; a first detection part configured to detect a load of the actuator on the basis of an output voltage of the piezoelectric element; a determination part configured to determine that an abnormality is present, if the load detected by the first detection part is out of an allowable range corresponding to an operational state of the variable geometry turbocharger; a second detection part configured to detect the operational state of the variable geometry turbocharger; a storage part configured to store a map which defines a relationship between the operational state of the variable geometry turbocharger and the allowable range, wherein the determination part is configured to set the allowable range corresponding to the operational state detected by the second detection part on the basis of the map, wherein the map comprises a plurality of maps prepared corresponding to an opening degree of the nozzle mechanism representing the operational state, wherein the actuator is connected to the nozzle mechanism via a rod member configured to drive along an axial direction, and wherein the piezoelectric element is disposed on an opposite side from a side of the actuator to which the rod member is connected. a housing to which a reaction force of the actuator is applicable; a piezoelectric element interposed between the actuator and the housing; a first detection part configured to detect a load of the actuator on the basis of an output voltage of the piezoelectric element; a determination part configured to determine that an abnormality is present, if the load detected by the first detection part is out of an allowable range corresponding to an operational state of the variable geometry turbocharger; a second detection part configured to detect the operational state of the variable geometry turbocharger; a storage part configured to store a map which defines a relationship between the operational state of the variable geometry turbocharger and the allowable range, wherein the determination part is configured to set the allowable range corresponding to the operational state detected by the second detection part on the basis of the map, wherein the map comprises a plurality of maps prepared corresponding to an opening degree of the nozzle mechanism representing the operational state, wherein the actuator is connected to the nozzle mechanism via a rod member configured to drive along an axial direction, and wherein the piezoelectric element is disposed on an opposite side from a side of the actuator to which the rod member is connected.
Control device (DC) for an adaptive vehicle optical unit (BO) and comprising at least one source (SL) capable of delivering a light beam participating in a signalling function, said control device (DC) comprising control means (MC) arranged to control the intensity of said delivered light beam as a function of a photometric function in which said source (SL) participates said control means (MC) being further arranged to control said intensity of the delivered light beam so that it belongs to an intensity sub-interval selected as a function of a measurement of light intensity outside said vehicle among at least two intensity sub-intervals belonging to an intensity interval depending on said photometric function - characterized in that said intensity subintervals of said intensity interval comprise an average value defined by the geometric sequence In = I1*pn-1, where n is an index designating said intensity subintervals of the considered intensity interval and comprised between 1 and N, N is the total number of intensity subintervals of the considered intensity interval, I1 is the average intensity of the subinterval with the smallest values within the considered intensity interval, and p is a function of N, I1 and IN, IN being the average intensity of the subinterval with the largest values within said considered intensity interval. and in that p is defined for each considered interval by the equation p = 10[1/(N-1)]*log(IN/I1). - characterized in that said intensity subintervals of said intensity interval comprise an average value defined by the geometric sequence In = I1*pn-1, where n is an index designating said intensity subintervals of the considered intensity interval and comprised between 1 and N, N is the total number of intensity subintervals of the considered intensity interval, I1 is the average intensity of the subinterval with the smallest values within the considered intensity interval, and p is a function of N, I1 and IN, IN being the average intensity of the subinterval with the largest values within said considered intensity interval.
A battery cell (200; 300) comprising: an electrode assembly including an electrode tab protruding toward at least one outer periphery; a battery case including an accommodation part in which the electrode assembly is mounted; and an electrode lead connected to the electrode tab for electrical connection with an external device, wherein the electrode lead includes: a tab connection part electrically connected to the electrode tab; and a protrusion extension part extended from the tab connection part and protruding outwardly of the battery case to thereby be electrically connected to the external device, the tab connection part being coated with a gas adsorbent , and wherein the tab connection part is formed to have a length at which both end portions thereof in a width direction perpendicular to a protrusion direction of the electrode tab reach thermally bonded outer peripheries of both side surfaces of the battery case , respectively, an insulating film is interposed between both end portions of the tab connection part and the thermally bonded outer peripheries of both side surfaces of the battery case so as to improve a sealing property at the time of thermal bonding. an electrode assembly including an electrode tab protruding toward at least one outer periphery; a battery case including an accommodation part in which the electrode assembly is mounted; and an electrode lead connected to the electrode tab for electrical connection with an external device, wherein the electrode lead includes: a tab connection part electrically connected to the electrode tab; and a protrusion extension part extended from the tab connection part and protruding outwardly of the battery case to thereby be electrically connected to the external device, the tab connection part being coated with a gas adsorbent , and wherein the tab connection part is formed to have a length at which both end portions thereof in a width direction perpendicular to a protrusion direction of the electrode tab reach thermally bonded outer peripheries of both side surfaces of the battery case , respectively, an insulating film is interposed between both end portions of the tab connection part and the thermally bonded outer peripheries of both side surfaces of the battery case so as to improve a sealing property at the time of thermal bonding. a tab connection part electrically connected to the electrode tab; and a protrusion extension part extended from the tab connection part and protruding outwardly of the battery case to thereby be electrically connected to the external device, the tab connection part being coated with a gas adsorbent , and wherein the tab connection part is formed to have a length at which both end portions thereof in a width direction perpendicular to a protrusion direction of the electrode tab reach thermally bonded outer peripheries of both side surfaces of the battery case , respectively, an insulating film is interposed between both end portions of the tab connection part and the thermally bonded outer peripheries of both side surfaces of the battery case so as to improve a sealing property at the time of thermal bonding.
Method for controlling curing apparatuses for tyre production, wherein said curing apparatuses are adapted to work on green tyres (T1) to obtain corresponding finished tyres (T2), said method comprising: acquiring, through a processing unit , initial parameters (S0) describing at least one of the shape and the dimensions of said finished tyres (T2); computing, through said processing unit , as a function of said initial parameters (S0), first parameters (S1) describing said green tyres (T1), said first parameters (S1) comprising at least one parameter (P11) representative of an axial height of said green tyres (T1); acquiring, through said processing unit , second parameters (S2) describing said curing apparatuses , said second parameters (S2) comprising one or more parameters representative of dimensions of said curing apparatuses ; computing, through said processing unit , third parameters (S3) as a function of said first parameters (S1) and said second parameters (S2), said third parameters (S3) comprising one or more parameters representative of positions taken by movable members included in said curing apparatuses ; generating, through said processing unit , as a function of said third parameters (S3), control signals (YY) for controlling the movable members of said curing apparatuses and for obtaining said finished tyres (T2) starting from said green tyres (T1); sending said control signals (YY) from said processing unit to said curing apparatuses . acquiring, through a processing unit , initial parameters (S0) describing at least one of the shape and the dimensions of said finished tyres (T2); computing, through said processing unit , as a function of said initial parameters (S0), first parameters (S1) describing said green tyres (T1), said first parameters (S1) comprising at least one parameter (P11) representative of an axial height of said green tyres (T1); acquiring, through said processing unit , second parameters (S2) describing said curing apparatuses , said second parameters (S2) comprising one or more parameters representative of dimensions of said curing apparatuses ; computing, through said processing unit , third parameters (S3) as a function of said first parameters (S1) and said second parameters (S2), said third parameters (S3) comprising one or more parameters representative of positions taken by movable members included in said curing apparatuses ; generating, through said processing unit , as a function of said third parameters (S3), control signals (YY) for controlling the movable members of said curing apparatuses and for obtaining said finished tyres (T2) starting from said green tyres (T1); sending said control signals (YY) from said processing unit to said curing apparatuses .
A method for conditioning hair comprising applying to hair a composition comprising a mixture of stearamidopropyl dimethylamine and behenamidopropyl dimethylamine, wherein a weight ratio of stearamidopropyl dimethylamine to behenamidopropyl dimethylamine is 0.60:1.00 to 0.85:1.00.
Rail vehicle for a rail transportation system having a running rail along which the rail vehicle is movable in a self-acting manner, said rail vehicle comprising a first axle module having two lateral parts to be disposed on either side of the running rail , wherein at least one lateral part has a drivable running element that interacts with a running track of the running rail , and wherein a drive device for driving the running element is provided, and at least a second axle module , wherein the axle modules are connected by means of a mounting plate that is disposable above the running rail , characterized in that the mounting plate at least at one end has an impact protection element which is coupled to the mounting plate so as to be displaceable in the longitudinal direction, and the rail vehicle has at least one emergency braking system , wherein the at least one emergency braking system is activatable both by interrupting a power supply and also by displacement of the impact protection element relative to the mounting plate .
Hydromount , in particular for mounting a motor vehicle engine on a vehicle body, comprising: a hydromodule having a supporting spring which supports a mount core , encloses a working chamber and is supported on an outer ring to which a cover is fixed, a compensation chamber separated from the working chamber by an intermediate plate and delimited by a compensation diaphragm , the compensation chamber and the working chamber being filled with a damping liquid and being connected to one another in a liquid-conducting manner via a damping channel arranged in the intermediate plate , and a housing accommodating the hydraulic module , wherein the outer ring has a radial projection , wherein the radial projection is provided with a rubberized axial abutment surface and a non-rubberized radial outer surface , and wherein a radial clearance is provided between the hydromodule and the housing , characterized in that the hydromodule is fixed in the housing by a rotational movement. a hydromodule having a supporting spring which supports a mount core , encloses a working chamber and is supported on an outer ring to which a cover is fixed, a compensation chamber separated from the working chamber by an intermediate plate and delimited by a compensation diaphragm , the compensation chamber and the working chamber being filled with a damping liquid and being connected to one another in a liquid-conducting manner via a damping channel arranged in the intermediate plate , and a housing accommodating the hydraulic module , wherein the outer ring has a radial projection , wherein the radial projection is provided with a rubberized axial abutment surface and a non-rubberized radial outer surface , and wherein a radial clearance is provided between the hydromodule and the housing , characterized in that the hydromodule is fixed in the housing by a rotational movement.
A method comprising: Importing from a real world welding machine into a virtual reality welding system through a communication device a first data set of welding quality parameters, being representative of a quality of a weld generated by a student welder during a real-world welding activity corresponding to a defined welding process; comparing a second data set of welding quality parameters stored on the virtual reality simulator, being representative of a quality of a virtual weld generated by said student welder during a simulated welding activity corresponding to said defined welding process on said virtual reality welding system , to the first data set using a programmable processor-based subsystem of the virtual reality welding system; and generating a numerical comparison score in response to the comparing using the programmable processor-based subsystem of the virtual reality welding system . Importing from a real world welding machine into a virtual reality welding system through a communication device a first data set of welding quality parameters, being representative of a quality of a weld generated by a student welder during a real-world welding activity corresponding to a defined welding process; comparing a second data set of welding quality parameters stored on the virtual reality simulator, being representative of a quality of a virtual weld generated by said student welder during a simulated welding activity corresponding to said defined welding process on said virtual reality welding system , to the first data set using a programmable processor-based subsystem of the virtual reality welding system; and generating a numerical comparison score in response to the comparing using the programmable processor-based subsystem of the virtual reality welding system .