mhurhangee/patent-ind-claim-en huggingface dataset:
Burner for a furnace for vitrifiable materials, the furnace comprising a tank having one or more walls defining a melting chamber , wherein said burner comprises: - a plurality of injectors arranged to form a straight line or arranged offset from a straight line, wherein each injector is configured to generate, in use, a flame within said melting chamber , - at least one base , wherein said plurality of injectors is stably associated with the base to form an injection assembly , - a cover assembly , comprising a shell body and a cooling circuit , configured to allow the circulation of a cooling fluid within said shell body ; and wherein said shell body removably surrounds at least part of each injector and is removably associated with the injection assembly and is apt to be associated with a wall of the furnace to allow a connection of each injector with said wall of the tank ; and wherein each injector has a combustion chamber configured to be in fluid communication with: said melting chamber through a communication mouth , an oxidant feeding circuit through an oxidant inlet , and a combustible feeding circuit through a combustible inlet . - a plurality of injectors arranged to form a straight line or arranged offset from a straight line, wherein each injector is configured to generate, in use, a flame within said melting chamber , - at least one base , wherein said plurality of injectors is stably associated with the base to form an injection assembly , - a cover assembly , comprising a shell body and a cooling circuit , configured to allow the circulation of a cooling fluid within said shell body ; and wherein said shell body removably surrounds at least part of each injector and is removably associated with the injection assembly and is apt to be associated with a wall of the furnace to allow a connection of each injector with said wall of the tank ; and wherein each injector has a combustion chamber configured to be in fluid communication with: said melting chamber through a communication mouth , an oxidant feeding circuit through an oxidant inlet , and a combustible feeding circuit through a combustible inlet .
Airbag assembly comprising an airbag passage opening which is arranged above the firing channel of the airbag and which is closed by at least one airbag flap and a cover made of plastic which is fastened, in particular moulded on, above the airbag flap , wherein the cover has at least one predetermined breaking line at the edge of the airbag flap in order to allow the airbag cushion to deploy, and wherein the airbag flap is connected in an integrally moulded manner to a flap supporting wall via an articulation point , said supporting wall bearing in a fastened manner on the inner side of the firing channel wall , characterized in that lying in the firing channel, between the airbag cushion and the airbag flap , is an additional surface element which is in the form of a cover and which at least partially covers the airbag flap and the inner side of the firing channel wall .
A button-type lithium ion battery, comprising: a shell internally provided with a cavity ; a winding core arranged in the cavity ; a center uptight provided with an opening at at least one end of the center uptight ; a pole arranged on the shell , one end of the pole extending to an inside of the opening and an other end of the pole extending to an outside of the shell ; tabs connected with the winding core , the tabs extending to the opening and being electrically connected with the pole ; further comprising an upper insulating sheet and a lower insulating sheet respectively attached to an upper bottom surface and a lower bottom surface of the winding core ; wherein the shell comprises a pedestal and a cover body , which are mutually cooperated to form the cavity ; wherein the cover body is provided with a liquid injection port and a seal which is capable of sealing the liquid injection port ; the pole is arranged on the cover body ; a liquid injection port and a through hole used for installing the pole are formed on the cover body by punching; and the tabs comprise a positive tab welded on the shell through laser welding or ultrasonic welding, and a negative tab welded on the pole through laser welding or ultrasonic welding or resistance welding; wherein the pole is embedded into the through hole , and sealant is injected between the outer wall surface of the pole and the inner wall surface of the through hole . a shell internally provided with a cavity ; a winding core arranged in the cavity ; a center uptight provided with an opening at at least one end of the center uptight ; a pole arranged on the shell , one end of the pole extending to an inside of the opening and an other end of the pole extending to an outside of the shell ; tabs connected with the winding core , the tabs extending to the opening and being electrically connected with the pole ; further comprising an upper insulating sheet and a lower insulating sheet respectively attached to an upper bottom surface and a lower bottom surface of the winding core ; wherein the shell comprises a pedestal and a cover body , which are mutually cooperated to form the cavity ; wherein the cover body is provided with a liquid injection port and a seal which is capable of sealing the liquid injection port ; the pole is arranged on the cover body ; a liquid injection port and a through hole used for installing the pole are formed on the cover body by punching; and the tabs comprise a positive tab welded on the shell through laser welding or ultrasonic welding, and a negative tab welded on the pole through laser welding or ultrasonic welding or resistance welding; wherein the pole is embedded into the through hole , and sealant is injected between the outer wall surface of the pole and the inner wall surface of the through hole .
A fan hub for a turbine engine having a rotational axis (X) and supporting a fan blade , wherein the fan blade includes an airfoil comprising pressure and suction sides extending in a radial direction from a 0% span position at an inner flow path location to a 100% span position at an airfoil tip, wherein the airfoil has a relationship between an axial leading edge location and a span position that is at least a third order polynomial with a U-shaped curve having an initial negative slope followed by a positive slope, the positive slope leans aftward and the negative slope leans forward, the curve having a critical point in the range of 30-50% span position at which the curve changes from the negative slope to the positive slope; characterised in that the curve is linear from 55% span to 75% span and this portion of the positive slope increases at a rate of about 2.22 mm (0.0875 inch) per 1% span, +/- 1.01 mm (+/-0.04 inch) per 1% span.
Turbomachine component comprising a base component and an additional part , each of which with an outer wall encloses an inner cavity , and which abut one another in the region of the outer wall with mutually corresponding connecting faces in a connecting region , and which are substance-bonded to one another at the connecting faces , wherein at least one wall-like intermediate piece is provided in each of the base component and in the additional part and extends from the outer wall into the inner cavity , wherein the wall-like intermediate pieces of both parts are oriented to one another and abut one another in the connecting region , characterised in that a cutout with a transitional contour (20; 20a-f) deviating from a straight line is arranged on at least one transition between the intermediate piece and the outer wall for dissipation of mechanical and/or thermal stresses there; wherein the stress-dissipating transitional contour (20; 20a-f) is configured set back relative to the connecting faces of the base component or additional part .
A modular multi-level converter for converting a DC voltage into an AC voltage, wherein the modular multi-level converter comprises a first row and a second row of converter cells , each converter cell comprising an input and an output, called outputs , a cell capacitor (C cell , C cell ') and semiconductor switches adapted for connecting the cell capacitor to an output of the converter cell and for bypassing the cell capacitor; wherein the first row of converter cells interconnects a positive DC link connection point and a negative DC link connection point ; wherein the first row of converter cells comprises an upper pair and a lower pair of series-connected strings of series-connected converter cells ; wherein the upper pair of strings connects the positive DC link connection point with a neutral DC link connection point and provides an upper intermediate connection point between the strings ; wherein the lower pair of strings connects the negative DC link connection point with the neutral DC link connection point and provides a lower intermediate connection point between the strings ; wherein the second row of converter cells comprises a pair of series-connected strings of series-connected converter cells interconnecting the upper intermediate connection point and the lower intermediate connection point and provides an AC connection point between the strings ; characterised in that the converter cells of the first row have a first cell capacity (Ccell') and the converter cells of the second row have a second cell capacity (Ccell) higher than the first cell capacity (Ccell'); wherein the converter cells of the first row have a capacitor switch , which is adapted to interconnect the cell capacitor (C cell ') with the outputs and which has a lower current rating than a main switch of the converter cells of the first row , wherein the main switch is adapted to bypass the cell capacitor and short-circuit the outputs of the converter cell ; wherein the converter cells of the second row have a capacitor switch and the current rating of the capacitor switch of a converter cell of the first row is smaller than a current rating of the capacitor switch of a converter cell of the second row .
Feedthrough for passing a conductor of a feedthrough component through a housing part of a housing, in particular a battery housing, characterized in that the feedthrough comprises: a glass or glass ceramic material , a feedthrough component having at least one conductor, in particular a substantially pin-shaped conductor and a head part , wherein the feedthrough component is vitrified in the glass or glass-ceramic material , and the area (F KOPFTEIL ) of the head part is larger than the area, in particular the cross-sectional area (F LEITER ) of the conductor, in particular of the essentially pin-shaped conductor , and the head part is designed in such a way that it can be connected to an electrode connecting component or electrode connecting part , in particular made of copper, a copper alloy CuSiC, an aluminum alloy AlSiC or aluminum, with a mechanically stable and non-detachable and electrically well-conducting connection, wherein the conductor comprises an aluminum alloy, aluminum, a copper alloy, copper, a silver alloy, silver, a gold alloy, gold, magnesium or a magnesium alloy. a glass or glass ceramic material , a feedthrough component having at least one conductor, in particular a substantially pin-shaped conductor and a head part , wherein the feedthrough component is vitrified in the glass or glass-ceramic material , and the area (F KOPFTEIL ) of the head part is larger than the area, in particular the cross-sectional area (F LEITER ) of the conductor, in particular of the essentially pin-shaped conductor , and the head part is designed in such a way that it can be connected to an electrode connecting component or electrode connecting part , in particular made of copper, a copper alloy CuSiC, an aluminum alloy AlSiC or aluminum, with a mechanically stable and non-detachable and electrically well-conducting connection, wherein the conductor comprises an aluminum alloy, aluminum, a copper alloy, copper, a silver alloy, silver, a gold alloy, gold, magnesium or a magnesium alloy.
Piezo motor, comprising a housing having at least one opening, which comprises spring-elastic sections ; an element to be driven in a driving direction; a piezo actuator inserted in the housing and having a friction element arranged on one of its planar side faces , at least the friction element projecting out of the opening of the housing and being provided for contact with the element to be driven; a holder comprising two spaced-apart clamping jaws which clamp the piezo actuator between them and support it in the housing in such a way that the piezo actuator can move exclusively in a direction towards the element to be driven which is oriented substantially perpendicular to the driving direction and defines a direction of movement of the piezo actuator ; at least one spring which presses the piezo actuator against the element to be driven; planar guide tracks which are arranged at least in sections in the housing and extend parallel to the direction of movement of the piezo actuator ; bearing elements arranged between the clamping jaws and the guide tracks and having a circular cross-section; characterized in that thrust pieces are clamped between the spring-elastic sections of the housing and the bearing elements , which together with the guide tracks of the housing form guides in the manner of a V-groove, and the bearing elements are pressed against the clamping jaws by the thrust pieces . a housing having at least one opening, which comprises spring-elastic sections ; an element to be driven in a driving direction; a piezo actuator inserted in the housing and having a friction element arranged on one of its planar side faces , at least the friction element projecting out of the opening of the housing and being provided for contact with the element to be driven; a holder comprising two spaced-apart clamping jaws which clamp the piezo actuator between them and support it in the housing in such a way that the piezo actuator can move exclusively in a direction towards the element to be driven which is oriented substantially perpendicular to the driving direction and defines a direction of movement of the piezo actuator ; at least one spring which presses the piezo actuator against the element to be driven; planar guide tracks which are arranged at least in sections in the housing and extend parallel to the direction of movement of the piezo actuator ; bearing elements arranged between the clamping jaws and the guide tracks and having a circular cross-section; characterized in that thrust pieces are clamped between the spring-elastic sections of the housing and the bearing elements , which together with the guide tracks of the housing form guides in the manner of a V-groove, and the bearing elements are pressed against the clamping jaws by the thrust pieces .
A method performed by a network device connected to a plurality of network providers, in a given geographical area, the method comprising: - periodically receiving, from a network node of each network provider, information including a percentage of network utilization, - determining, for each network provider, based on at least the received percentage of network utilization of the network provider, an individual list including information on other available network providers to which mobile devices subscribing to the network provider may connect to in the event of an emergency; and - instructing the network node of each network provider to transmit said determined individual list received from the network device , to mobile devices subscribing to the network provider; wherein each individual list further includes information on services, per available network provider, that said mobile devices may use, and the individual list further includes an emergency service profile, per available network provider, the profile indicating at least service settings and resource allocation information. - periodically receiving, from a network node of each network provider, information including a percentage of network utilization, - determining, for each network provider, based on at least the received percentage of network utilization of the network provider, an individual list including information on other available network providers to which mobile devices subscribing to the network provider may connect to in the event of an emergency; and - instructing the network node of each network provider to transmit said determined individual list received from the network device , to mobile devices subscribing to the network provider; wherein each individual list further includes information on services, per available network provider, that said mobile devices may use, and the individual list further includes an emergency service profile, per available network provider, the profile indicating at least service settings and resource allocation information.
Aradiation detector comprising: a substrate including a charge collection electrode ; a radiation absorption layer disposed on one side with respect to the substrate ; and a voltage application electrode disposed on the one side with respect to the radiation absorption layer , a bias voltage being applied to the voltage application electrode so that a potential difference is generated between the voltage application electrode and the charge collection electrode , characterized by the radiation absorption layer including perovskite structure particles and a binder resin . a substrate including a charge collection electrode ; a radiation absorption layer disposed on one side with respect to the substrate ; and a voltage application electrode disposed on the one side with respect to the radiation absorption layer , a bias voltage being applied to the voltage application electrode so that a potential difference is generated between the voltage application electrode and the charge collection electrode , characterized by the radiation absorption layer including perovskite structure particles and a binder resin .
A wave energy converter comprising: a support structure ; a depth adjustable paravane rotationally and pivotably coupled to the support structure ; and an energy collection device coupled to the paravane , characterized in that the paravane applies downward force on said energy collection device in response to downward force applied to the paravane by heave-down waves; and in that the paravane has a plan shape having a surface area and a center of planar area , wherein a majority of said surface area is aft of the center of planar area, wherein the paravane is configured to align with the prevailing flow, or to the resultant vector of multiple flows, of water via rotation of the paravane about the support structure. a support structure ; a depth adjustable paravane rotationally and pivotably coupled to the support structure ; and an energy collection device coupled to the paravane , characterized in that the paravane applies downward force on said energy collection device in response to downward force applied to the paravane by heave-down waves; and in that the paravane has a plan shape having a surface area and a center of planar area , wherein a majority of said surface area is aft of the center of planar area, wherein the paravane is configured to align with the prevailing flow, or to the resultant vector of multiple flows, of water via rotation of the paravane about the support structure.
A signal processing apparatus, comprising: acquisition means configured to acquire input data S(x); means configured to generate noise cut data I(x) by deducting a predetermined noise value from values of respective signals of the input data S(x); and stochastic resonance processing means configured to subject the noise cut data I(x) to a predetermined stochastic resonance processing to thereby generate stochastic resonance data J(x), characterized in that the signal processing apparatus further comprises: extraction means configured to extract a detection target signal based on the stochastic resonance data J(x), wherein the stochastic resonance processing means is configured to perform the predetermined stochastic resonance processing to calculate the stochastic resonance data J(x) from the noise cut data I(x) using one of the following Formula 1 and Formula 2, J x = { 1 T < I x 0 I x < T − K 1 − 1 1 + exp − α T − I x K − 0.5 T − K ≦ I x ≦ T J x = { 1 T < I x 0 I x < T − K 1 − T − I x / K T − K ≦ I x ≦ T , where T is a threshold value to quantize the input data S(x), and K is a noise strength. acquisition means configured to acquire input data S(x); means configured to generate noise cut data I(x) by deducting a predetermined noise value from values of respective signals of the input data S(x); and stochastic resonance processing means configured to subject the noise cut data I(x) to a predetermined stochastic resonance processing to thereby generate stochastic resonance data J(x), characterized in that the signal processing apparatus further comprises: extraction means configured to extract a detection target signal based on the stochastic resonance data J(x), wherein the stochastic resonance processing means is configured to perform the predetermined stochastic resonance processing to calculate the stochastic resonance data J(x) from the noise cut data I(x) using one of the following Formula 1 and Formula 2, J x = { 1 T < I x 0 I x < T − K 1 − 1 1 + exp − α T − I x K − 0.5 T − K ≦ I x ≦ T J x = { 1 T < I x 0 I x < T − K 1 − T − I x / K T − K ≦ I x ≦ T , where T is a threshold value to quantize the input data S(x), and K is a noise strength. extraction means configured to extract a detection target signal based on the stochastic resonance data J(x), wherein the stochastic resonance processing means is configured to perform the predetermined stochastic resonance processing to calculate the stochastic resonance data J(x) from the noise cut data I(x) using one of the following Formula 1 and Formula 2, J x = { 1 T < I x 0 I x < T − K 1 − 1 1 + exp − α T − I x K − 0.5 T − K ≦ I x ≦ T J x = { 1 T < I x 0 I x < T − K 1 − T − I x / K T − K ≦ I x ≦ T , where T is a threshold value to quantize the input data S(x), and K is a noise strength.