mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine comprising: a case assembly defining an outer flow path wall and an inner flow path wall , each extending between a first case end and a second case end along a central longitudinal axis (A); a splitter disposed between the outer flow path wall and the inner flow path wall, the splitter having a first surface and a second surface disposed opposite the first surface, each extending from the second case end towards a leading edge ; an upstream blade row disposed proximate to the first case end and extending between the outer flow path wall and the inner flow path wall; and a transition duct defined by the outer flow path wall and the inner flow path wall and extending from the upstream blade row to the leading edge, the transition duct defining an entrance section that extends from the upstream blade row towards a diverging section , the diverging section extending from the entrance section towards the leading edge; wherein the entrance section has an entrance annular area (N); wherein the diverging section of the transition duct includes an outer duct inlet having a first annular area (D1) and an inner duct inlet having a second annular area (D2); wherein the outer duct inlet and the inner duct inlet are proximate to the leading edge; wherein the second annular area (D2) is greater than the first annular area (D1); and wherein a combination of the first annular area (D1) and the second annular area (D2) is greater than the entrance annular area (N). a case assembly defining an outer flow path wall and an inner flow path wall , each extending between a first case end and a second case end along a central longitudinal axis (A); a splitter disposed between the outer flow path wall and the inner flow path wall, the splitter having a first surface and a second surface disposed opposite the first surface, each extending from the second case end towards a leading edge ; an upstream blade row disposed proximate to the first case end and extending between the outer flow path wall and the inner flow path wall; and a transition duct defined by the outer flow path wall and the inner flow path wall and extending from the upstream blade row to the leading edge, the transition duct defining an entrance section that extends from the upstream blade row towards a diverging section , the diverging section extending from the entrance section towards the leading edge; wherein the entrance section has an entrance annular area (N); wherein the diverging section of the transition duct includes an outer duct inlet having a first annular area (D1) and an inner duct inlet having a second annular area (D2); wherein the outer duct inlet and the inner duct inlet are proximate to the leading edge; wherein the second annular area (D2) is greater than the first annular area (D1); and wherein a combination of the first annular area (D1) and the second annular area (D2) is greater than the entrance annular area (N).
A calculation method to calculate a degree of deterioration of a battery, the calculation method being characterized by comprising: referring to a detection value database configured to store a charge amount of a battery and a voltage of the battery, the voltage being generated when the battery is charged, while associating the charge amount of the battery with the voltage of the battery, and a function information database configured to store a function representing a relationship between an electrode potential and a charge amount of each of a plurality of active materials included in the battery; and determining a degree of deterioration of the battery by performing a regression calculation (S102) on the voltage of the battery that is stored in the detection value database, with capacities of active materials of electrodes, charge amounts of the active materials of the electrodes and an internal resistance value of the function stored in the function information database being set as variables. referring to a detection value database configured to store a charge amount of a battery and a voltage of the battery, the voltage being generated when the battery is charged, while associating the charge amount of the battery with the voltage of the battery, and a function information database configured to store a function representing a relationship between an electrode potential and a charge amount of each of a plurality of active materials included in the battery; and a detection value database configured to store a charge amount of a battery and a voltage of the battery, the voltage being generated when the battery is charged, while associating the charge amount of the battery with the voltage of the battery, and a function information database configured to store a function representing a relationship between an electrode potential and a charge amount of each of a plurality of active materials included in the battery; and determining a degree of deterioration of the battery by performing a regression calculation (S102) on the voltage of the battery that is stored in the detection value database, with capacities of active materials of electrodes, charge amounts of the active materials of the electrodes and an internal resistance value of the function stored in the function information database being set as variables.
Household refrigeration appliance with a housing , in which a first, upper receiving compartment for foodstuffs and a second, lower receiving compartment for foodstuffs that is separate therefrom are embodied, wherein the two receiving compartments are separated from one another on the front side by a crossbar of the household refrigeration appliance , and with a light module , which is arranged on a front side of the crossbar , wherein the light module has a module housing , wherein the module housing has a front housing part that has a lower wall which is a lightemitting window , wherein the lower wall has a subregion that is oriented obliquely upwards in relation to a horizontal (H), starting from the side close to the crossbar, characterised in that inside of the module housing a light channel is embodied, through which an emission of the light (L) from the module housing through the lower wall takes place obliquely in relation to a vertical (V) and, as a result, a zone that is in front of the lower receiving compartment in the depth direction (z) of the household refrigeration appliance is illuminated, wherein the light channel has a reflection wall that is oriented obliquely in relation to the vertical (V), on which, in the module housing , the light (L) of a light source of the light module is reflected in a direction away from the crossbar .
A touch input method for a mobile terminal having a touch screen , the method comprising: displaying, on the touch screen , a plurality of representative images corresponding to content objects; selecting (S103), from the plurality of representative images, at least one representative image in response to a first touch event detected on the touch screen ; displaying, after selecting the at least one representative image, at least one command tip on at least one boundary of the touch screen , the command tips corresponding to commands associated with available direction specific touch events; and executing (S109) a command corresponding to a second touch event detected on the touch screen , the second touch event being defined by a movement direction, speed, and the at least one representative image, the touch being associated with the first touch event and the second touch event, wherein the at least one command tip corresponds to a first set of at least one command or a second set of at least one command based on a number of the selected at least one representative image, and wherein the second touch event is one of the available direction-specific touch events comprising movement of the touch in a direction toward the boundary at a speed faster than a threshold speed value, and a command corresponding to the command tip presented on the boundary. displaying, on the touch screen , a plurality of representative images corresponding to content objects; selecting (S103), from the plurality of representative images, at least one representative image in response to a first touch event detected on the touch screen ; displaying, after selecting the at least one representative image, at least one command tip on at least one boundary of the touch screen , the command tips corresponding to commands associated with available direction specific touch events; and executing (S109) a command corresponding to a second touch event detected on the touch screen , the second touch event being defined by a movement direction, speed, and the at least one representative image, the touch being associated with the first touch event and the second touch event, wherein the at least one command tip corresponds to a first set of at least one command or a second set of at least one command based on a number of the selected at least one representative image, and wherein the second touch event is one of the available direction-specific touch events comprising movement of the touch in a direction toward the boundary at a speed faster than a threshold speed value, and a command corresponding to the command tip presented on the boundary.
A casing component configured to form part of a flow path in a turbine, the casing component comprising: a base made of nodular cast iron; and a repaired region in the base , the repaired region being defined by a cavity or recess in the base and comprised of a butter layer applied on the base within the cavity or recess, and a fill layer applied on the butter layer , wherein the butter layer is comprised of a nickel alloy, a nickel-iron alloy or a nickel-iron-manganese alloy and the fill layer is comprised of carbon steel or low carbon steel. a base made of nodular cast iron; and a repaired region in the base , the repaired region being defined by a cavity or recess in the base and comprised of a butter layer applied on the base within the cavity or recess, and a fill layer applied on the butter layer , wherein the butter layer is comprised of a nickel alloy, a nickel-iron alloy or a nickel-iron-manganese alloy and the fill layer is comprised of carbon steel or low carbon steel.
A press hardening method comprising the following steps: A. the provision of a steel sheet for heat-treatment as described in the European Standard EN 10083, precoated with a zinc- or aluminum-based pre-coating, B. the deposition of a hydrogen barrier pre-coating over a thickness from 10 to 550 nm and consisting of nickel and chromium; or nickel and aluminum; or magnesium; or chromium; or nickel, aluminum and and optionally Sr, Sb, Pb, Ti, Ca, Mn, Sn, La, Ce, Cr, Zr or Bi, the content by weight of each additional element being inferior to 0.3% by weight, C. the batch annealing of the precoated steel sheet to obtain a pre-alloyed steel sheet, the cooling after the batch annealing being performed at a speed of 29.0 °C.h -1 or less, performed at a temperature of at least 450°C during at least 1h, D. the cutting of the pre-alloyed steel sheet to obtain blank, E. the thermal treatment of the blank at a temperature between 800 and 970°C during a dwell time between 1 and 12 minutes to obtain a fully austenitic microstructure in the steel, F. the transfer of the blank into a press tool, G. the hot-forming of the blank at a temperature between 600 to 830°C to obtain a part, H. the cooling of the part obtained at step G) in order to obtain a microstructure in steel being mostly martensitic. A. the provision of a steel sheet for heat-treatment as described in the European Standard EN 10083, precoated with a zinc- or aluminum-based pre-coating, B. the deposition of a hydrogen barrier pre-coating over a thickness from 10 to 550 nm and consisting of nickel and chromium; or nickel and aluminum; or magnesium; or chromium; or nickel, aluminum and and optionally Sr, Sb, Pb, Ti, Ca, Mn, Sn, La, Ce, Cr, Zr or Bi, the content by weight of each additional element being inferior to 0.3% by weight, C. the batch annealing of the precoated steel sheet to obtain a pre-alloyed steel sheet, the cooling after the batch annealing being performed at a speed of 29.0 °C.h -1 or less, performed at a temperature of at least 450°C during at least 1h, D. the cutting of the pre-alloyed steel sheet to obtain blank, E. the thermal treatment of the blank at a temperature between 800 and 970°C during a dwell time between 1 and 12 minutes to obtain a fully austenitic microstructure in the steel, F. the transfer of the blank into a press tool, G. the hot-forming of the blank at a temperature between 600 to 830°C to obtain a part, H. the cooling of the part obtained at step G) in order to obtain a microstructure in steel being mostly martensitic.
An interactive textile, comprising: a flexible substrate having a first surface and a second surface the second surface being opposite the first surface; an embroidered thread-pattern defining an ornamental feature on the first surface of the flexible substrate; and a touch input sensor comprising a set of conductive threads on the second surface of the flexible substrate at a corresponding area of at least a portion of the embroidered thread pattern, the set of conductive threads forming a conductive thread-pattern on the second surface that is conformal to the ornamental feature on the first surface at the portion of the embroidered thread pattern, wherein embroidery threads pass from the second surface of the flexible substrate to the first surface to attach the set of conductive threads to the flexible substrate. a flexible substrate having a first surface and a second surface the second surface being opposite the first surface; an embroidered thread-pattern defining an ornamental feature on the first surface of the flexible substrate; and a touch input sensor comprising a set of conductive threads on the second surface of the flexible substrate at a corresponding area of at least a portion of the embroidered thread pattern, the set of conductive threads forming a conductive thread-pattern on the second surface that is conformal to the ornamental feature on the first surface at the portion of the embroidered thread pattern, wherein embroidery threads pass from the second surface of the flexible substrate to the first surface to attach the set of conductive threads to the flexible substrate.
A method for producing a transparent AlN sintered body, comprising: a first step of preparing a formed body by forming a mixture obtained by mixing a sintering aid with an AlN raw-material powder containing a plate-like AIN powder whose plate surface is a c-plane and which has an aspect ratio of 3 or more, the mixture being formed such that the plate surface of the plate-like AlN powder is disposed along a surface of the formed body; a second step of obtaining an oriented AlN sintered body by subjecting the formed body to hot-press sintering in a non-oxidizing atmosphere while applying a pressure to the surface of the formed body; and a third step of obtaining a transparent AlN sintered body by sintering the oriented AlN sintered body at normal pressure in a non-oxidizing atmosphere to remove a component derived from the sintering aid. a first step of preparing a formed body by forming a mixture obtained by mixing a sintering aid with an AlN raw-material powder containing a plate-like AIN powder whose plate surface is a c-plane and which has an aspect ratio of 3 or more, the mixture being formed such that the plate surface of the plate-like AlN powder is disposed along a surface of the formed body; a second step of obtaining an oriented AlN sintered body by subjecting the formed body to hot-press sintering in a non-oxidizing atmosphere while applying a pressure to the surface of the formed body; and a third step of obtaining a transparent AlN sintered body by sintering the oriented AlN sintered body at normal pressure in a non-oxidizing atmosphere to remove a component derived from the sintering aid.
Method of production of a circuit including a support , which support includes a conductive layer and a dielectric film laminated together, the method including a step of making windows in the dielectric film so that the support forms cavities having a bottom wall formed by the conductive layer and borders formed by the dielectric film , the method including the step consisting of an electronic component being placed against the bottom wall of a cavity and being connected to the bottom wall, the method including the step consisting of etching grooves in the conductive layer , this step of etching the conductive layer being performed after the lamination of the conductive layer with the dielectric film with the aid of an etching solution and the method including a preliminary step to the step of etching, which preliminary step consists of depositing a layer of protective material on the conductive layer in the bottom of the cavity and on at least one part of the dielectric film forming the borders of the cavity , which protective material is a liquid material capable of hardening and once hardened resistant to the etching solution used in the step of etching the conductive layer .
A method of manufacturing an optical article , the method comprising: supplying a first coating composition to an ultrasonic discharge nozzle of a coating apparatus ; supplying one or more additional coating compositions to the ultrasonic discharge nozzle of the coating apparatus , at least one of the first coating composition and the one or more additional coating compositions being a photochromic coating composition; mixing the first coating composition and the one or more additional coating compositions at the ultrasonic discharge nozzle of the coating apparatus ; and applying the mixture of the first coating composition and the one or more additional coating compositions to at least a portion of the optical article so as to provide a gradient pattern on the optical article upon exposure to actinic radiation, wherein the mixture of the first coating composition and the one or more additional coating compositions is applied from the ultrasonic discharge nozzle as a controlled, predetermined gradient pattern of atomized droplets. supplying a first coating composition to an ultrasonic discharge nozzle of a coating apparatus ; supplying one or more additional coating compositions to the ultrasonic discharge nozzle of the coating apparatus , at least one of the first coating composition and the one or more additional coating compositions being a photochromic coating composition; mixing the first coating composition and the one or more additional coating compositions at the ultrasonic discharge nozzle of the coating apparatus ; and applying the mixture of the first coating composition and the one or more additional coating compositions to at least a portion of the optical article so as to provide a gradient pattern on the optical article upon exposure to actinic radiation, wherein the mixture of the first coating composition and the one or more additional coating compositions is applied from the ultrasonic discharge nozzle as a controlled, predetermined gradient pattern of atomized droplets.
An operating unit for a vehicle component, in particular for a heating, ventilation and/or air conditioning system, comprising: - a manually actuatable actuating element ; - a retaining device for retaining the actuating element ; and - a bearing device for elastically mounting the actuating element on the retaining device , - wherein the bearing device comprises at least one first leaf spring pair , including two leaf springs that are disposed on top of and spaced apart from one another and extend parallel to one another, each having a first end and a second end located opposite therefrom, wherein the first and second ends of the leaf springs are each rigidly joined to one another by a spacer element , and wherein the at least one first leaf spring pair , at the first ends of the leaf springs thereof, is directly or indirectly rigidly joined to the actuating element , and at the second ends of the leaf springs thereof, is directly or indirectly rigidly joined to the retaining device , characterized in that - the bearing device comprises at least two first and at least two second leaf spring pairs between the actuating element and the retaining device , - the first leaf spring pairs are disposed parallel among one another and the second leaf spring pairs are disposed parallel among one another, and - the first leaf spring pairs are substantially oriented orthogonally the second leaf spring pairs . - a manually actuatable actuating element ; - a retaining device for retaining the actuating element ; and - a bearing device for elastically mounting the actuating element on the retaining device , - wherein the bearing device comprises at least one first leaf spring pair , including two leaf springs that are disposed on top of and spaced apart from one another and extend parallel to one another, each having a first end and a second end located opposite therefrom, wherein the first and second ends of the leaf springs are each rigidly joined to one another by a spacer element , and wherein the at least one first leaf spring pair , at the first ends of the leaf springs thereof, is directly or indirectly rigidly joined to the actuating element , and at the second ends of the leaf springs thereof, is directly or indirectly rigidly joined to the retaining device , - the bearing device comprises at least two first and at least two second leaf spring pairs between the actuating element and the retaining device , - the first leaf spring pairs are disposed parallel among one another and the second leaf spring pairs are disposed parallel among one another, and - the first leaf spring pairs are substantially oriented orthogonally the second leaf spring pairs .
An energy storage apparatus comprising a compressible spring extending between a releasing means and a compressing means , said compressing means and releasing means being in a fixedly attached relationship with said compressible spring at two ends thereof, said compressing means and releasing means being rotatable at different speeds so as to compress the compressible spring at one longitudinal side thereof while simultaneously releasing the compressible spring at the other longitudinal side, characterized by said energy storage apparatus further comprising a hydraulic jack continuously driven by a hydraulic pump in the manner that said compressible spring is compressed by said compressing means to which rotational movement is imparted by said hydraulic jack and, said hydraulic jack is periodically released by a hydraulic valve in constant intervals to provide continuous unidirectional rotary movement of constant speed to said compressing means .
Method allowing knowledge of a first datum (ID) by a user (A) registered with a blockchain (CB) to be proven, said method being implemented by a trusted entity (O) registered on said blockchain and comprising steps of: - obtaining (E30) said first datum (ID) outside of said blockchain (CB); - generating (E40) a second datum (P) from said first datum (ID); - sending (E50), outside of said blockchain (CB), said second datum (P) to said user (A); and - publishing (E90) said second datum (P) on said blockchain (CB) after publication (E70) of the second datum in the blockchain by a terminal of the user. - obtaining (E30) said first datum (ID) outside of said blockchain (CB); - generating (E40) a second datum (P) from said first datum (ID); - sending (E50), outside of said blockchain (CB), said second datum (P) to said user (A); and - publishing (E90) said second datum (P) on said blockchain (CB) after publication (E70) of the second datum in the blockchain by a terminal of the user.