mhurhangee/ep-ind-claims huggingface dataset:
A mobile partitioning wall having several wall elements, which are displaceably suspended at running rails, wherein at the wall elements, mounting elements are disposed horizontally and/or vertically at the edge side, which respectively are a profile, and having modular structural units, which are laterally insertable into the profiles, wherein, at the lateral walls of the profile, opposite located grooves are configured, and the structural units are disposed on at least one base plate, and the base plate positively cooperates with the grooves, characterized in that the wall elements are respectively configured from a plate, which is provided with at least one recess, wherein the plate has a layer-forming structure including a core and exterior shells disposed on both sides, and in that the profile is concealed at the edges within the recess in the plate, such that the profile is completely invisible, wherein the profile is configured in the shape of the recess and preferably has a U-shape or an H-shape, and positively cooperating contours are provided between the profile and the recess, wherein the profile is incorporated into and attached to the layer-forming structure of the wall element, wherein, on the one hand, realizing the core of the plate is utilized for configuring the recess and, on the other hand, gluing the exterior shells is simultaneously utilized for attaching the profile, or the recess will be milled into the plate at the location of installation and the profile will then be mounted therein.
A liquid ejection head comprising: a liquid channel configured for a first liquid and a second liquid to flow through; a pressure generation element configured to pressurize the first liquid; and an ejection orifice through which to eject the second liquid in a direction crossing a direction of the flow of the first liquid and the second liquid via the pressurization, wherein a distance in the direction of the flow from a position in the liquid channel at which the first liquid and the second liquid merge to the ejection orifice is greater than an interface stabilization distance (Le) in the direction of the flow from a position at which the first liquid and the second liquid contact each other to a position at which a stable interface is obtained between the first liquid and the second liquid; characterized in that, with Re being a Reynolds number, Af being a cross-sectional area of the liquid channel, Wp being a wetted perimeter of the liquid channel, and Le being the interface stabilization distance, the interface stabilization distance Le is calculated from a formula below Le = 4 Af 0.0550 Re + 0.379 exp − 0.148 Re + 0.260 / Wp. a liquid channel configured for a first liquid and a second liquid to flow through; a pressure generation element configured to pressurize the first liquid; and an ejection orifice through which to eject the second liquid in a direction crossing a direction of the flow of the first liquid and the second liquid via the pressurization, wherein a distance in the direction of the flow from a position in the liquid channel at which the first liquid and the second liquid merge to the ejection orifice is greater than an interface stabilization distance (Le) in the direction of the flow from a position at which the first liquid and the second liquid contact each other to a position at which a stable interface is obtained between the first liquid and the second liquid; characterized in that, with Re being a Reynolds number, Af being a cross-sectional area of the liquid channel, Wp being a wetted perimeter of the liquid channel, and Le being the interface stabilization distance, the interface stabilization distance Le is calculated from a formula below Le = 4 Af 0.0550 Re + 0.379 exp − 0.148 Re + 0.260 / Wp.
Spectacle lens for a display device which can be placed on the head of a user and generates an image, wherein the spectacle lens comprises a front side and a rear side, an input section and an output section separated from the input section and a light guide channel which is suitable for guiding light beams from pixels of the generated image, which are input into the spectacle lens by way of the input section of the spectacle lens, in the spectacle lens as far as the output section, by which they are output from the spectacle lens, wherein the spectacle lens is constructed from a number of sheets and has an outer sheet and an inner sheet connected to the outer sheet, characterized in that the first side of the outer sheet facing away from the inner sheet forms the front side of the spectacle lens and the first side of the inner sheet facing away from the outer sheet forms the rear side of the spectacle lens, wherein the outer sheet comprises the input section, the light guide channel and the output section, the inner sheet has a cut-out, which extends from the second side of the inner sheet facing towards the outer sheet in the direction of the rear side and in which the light guide channel is seated, wherein the output section is located next to the cut-out such that the light beams output from the output section enter into the inner sheet by way of the second side of the inner sheet, pass through the inner sheet and exit the inner sheet by way of the rear side.
A food composition comprising a medium chain triglyceride of a formula (Formula 1): wherein the R', R", and R'" esterified to the glycerol backbone are each independent fatty acids having 5-12 carbons, for use in conjunction with an anti-epileptic drug to enhance the effect of the AED in an animal, wherein the food composition comprises from 1% to 15% by weight of the MCT, and wherein the food composition further comprises 15% to 50% protein by weight, 5% to 40% fat by weight, 5% to 10% by weight ash content, and having a moisture content of 5% to 20% by weight.
A ureteral stent comprising a tubular member (312,412,712,812), having: a proximal end (314,414,714,814) comprising a retention feature having a coiled shape; a distal end (316,416,716,816) opposite the proximal end; and a middle portion (318,418,818) between the proximal end (312,412,712,812) and the distal end (316,416,716,816), characterized in that the coiled shape is a spiral shape (326,426,726,826) that extends from a bent portion (360,460,760) towards the middle portion (318,418,818) and surrounds the tubular member (312,412,712,812); and a first open end (328,428,728) of the stent is located at the lowermost end of the spiral shape (326,426,726,826); wherein the middle portion (318,418,818) comprises at least one opening (330,830) having smooth opening surfaces, wherein the at least one opening comprises rounded edges between an inside diameter and an outside diameter of the tubular member. a proximal end (314,414,714,814) comprising a retention feature having a coiled shape; a distal end (316,416,716,816) opposite the proximal end; and a middle portion (318,418,818) between the proximal end (312,412,712,812) and the distal end (316,416,716,816), characterized in that the coiled shape is a spiral shape (326,426,726,826) that extends from a bent portion (360,460,760) towards the middle portion (318,418,818) and surrounds the tubular member (312,412,712,812); and a first open end (328,428,728) of the stent is located at the lowermost end of the spiral shape (326,426,726,826); wherein the middle portion (318,418,818) comprises at least one opening (330,830) having smooth opening surfaces, wherein the at least one opening comprises rounded edges between an inside diameter and an outside diameter of the tubular member.
Method for producing a motor vehicle component, in particular a motor vehicle pillar, characterised by the following method steps: - providing a plate which is able to be precipitation hardened, made from a 6000 or 7000 aluminium alloy, - solution annealing the plate at a temperature between 350°C and 550°C for a period of 2 to 30 minutes, in particular 3 to 20 minutes and preferably 5 to 15 minutes, in particular for a 7000 aluminium alloy at a temperature between 440°C and 480°C and for a 6000 aluminium alloy in particular at a temperature between 490°C and 545°C, - partially different quenching of the solution annealed plate, wherein a first region is quenched to a temperature between 150°C and 250°C and at least one further region is quenched to a temperature below 150°C, - forming the plate during or after the partially different quenching, - artificial aging by heating and setting a yield strength in at least the first region greater than 120MPa and less than 200MPa and in the further region greater than 200MPa and less than or equal to 550MPa and a yield strength delta between two regions (5, 6) of greater than 50, preferably greater than 100MPa. - providing a plate which is able to be precipitation hardened, made from a 6000 or 7000 aluminium alloy, - solution annealing the plate at a temperature between 350°C and 550°C for a period of 2 to 30 minutes, in particular 3 to 20 minutes and preferably 5 to 15 minutes, in particular for a 7000 aluminium alloy at a temperature between 440°C and 480°C and for a 6000 aluminium alloy in particular at a temperature between 490°C and 545°C, - partially different quenching of the solution annealed plate, wherein a first region is quenched to a temperature between 150°C and 250°C and at least one further region is quenched to a temperature below 150°C, - forming the plate during or after the partially different quenching, - artificial aging by heating and setting a yield strength in at least the first region greater than 120MPa and less than 200MPa and in the further region greater than 200MPa and less than or equal to 550MPa and a yield strength delta between two regions (5, 6) of greater than 50, preferably greater than 100MPa.
A pixel defining layer, comprising: at least two sub-defining layers (022, 0221, 0222, 0223, 0224) sequentially and laminatedly disposed on a base substrate; wherein, in every two sub-defining layers (022, 0221, 0222, 0223, 0224) contacting each other, a first orthographic projection of the sub-defining layer (022, 0221, 0222, 0223, 0224) away from the base substrate on the base substrate is located within a second orthographic projection of the sub-defining layer (022, 0221, 0222, 0223, 0224) close to the base substrate on the base substrate, a surface of each sub-defining layer (022, 0221, 0222, 0223, 0224) parallel to a surface of the base substrate is a lyophobic surface, and a side surface of each sub-defining layer (022, 0221, 0222, 0223, 0224) is a lyophilic surface, characterized in that a lyophilic sub-defining layer is further disposed between the base substrate and the at least two sub-defining layers (022, 0221, 0222, 0223, 0224), the orthographic projections of the at least two sub-defining layers (022, 0221, 0222, 0223, 0224) on the base substrate are incorporated in an orthographic projection of the lyophilic sub-defining layer on the base substrate, and a surface of the lyophilic sub-defining layer parallel to a top surface of the base substrate is an exposed lyophilic surface. at least two sub-defining layers (022, 0221, 0222, 0223, 0224) sequentially and laminatedly disposed on a base substrate; wherein, in every two sub-defining layers (022, 0221, 0222, 0223, 0224) contacting each other, a first orthographic projection of the sub-defining layer (022, 0221, 0222, 0223, 0224) away from the base substrate on the base substrate is located within a second orthographic projection of the sub-defining layer (022, 0221, 0222, 0223, 0224) close to the base substrate on the base substrate, a surface of each sub-defining layer (022, 0221, 0222, 0223, 0224) parallel to a surface of the base substrate is a lyophobic surface, and a side surface of each sub-defining layer (022, 0221, 0222, 0223, 0224) is a lyophilic surface, characterized in that a lyophilic sub-defining layer is further disposed between the base substrate and the at least two sub-defining layers (022, 0221, 0222, 0223, 0224), the orthographic projections of the at least two sub-defining layers (022, 0221, 0222, 0223, 0224) on the base substrate are incorporated in an orthographic projection of the lyophilic sub-defining layer on the base substrate, and a surface of the lyophilic sub-defining layer parallel to a top surface of the base substrate is an exposed lyophilic surface.
A copolymer comprising: (a) an N-alkyl acrylamide residue; and (b) a polyester comprising: citric acid, polyethylene glycol, and glycerol 1,3-diglycerolate diacrylate. (a) an N-alkyl acrylamide residue; and (b) a polyester comprising: citric acid, polyethylene glycol, and glycerol 1,3-diglycerolate diacrylate.
Plastics injection-moulding method for manufacturing a poly-V belt pulley, which has an outer ring, an inner ring and a ring web, which connects the outer ring to the inner ring and has a plurality (r) of radially oriented ribs for supporting the outer ring against the inner ring, wherein the injection moulding takes place in a circular ring-shaped injection-moulding cavity, the poly-V-ribbed inner shell of which is formed by a plurality (s) of radially movable slides (s1 to s11) and which is vented during the injection moulding by means of the gaps between the slides (s1 to s11) adjacent to one another, characterized by the forming of the rib contour in the injection moulding cavity in such a way that the plurality (r) of ribs consists of a first group of thin ribs and a second group of thick ribs and in that the gaps extend in radial extension of the thin ribs, the width of which is significantly less than the width of the thick ribs, which extend circumferentially between the gaps.
A control circuit for a switched reluctance motor, comprising: controllable switches (21, 22, 23, 24, 25, 26) for connection to stator coils of the motor to control whether the coils are energised, a single position sensor responsive to the position of the rotor to provide indications of the timings of one or more positions of the rotor per revolution of the rotor, a position interpolator connected to receive the indications of timings of the rotor positions from the single position sensor, and to provide one or more indications of the timings of one or more estimated positions of the rotor between the timings indicated by the position sensor, a switch controller (27") connected to receive the indications of the timings from the position interpolator and the indications of the timings from the position sensor to determine timings of switch control signals connected to operate the switches (21, 22, 23, 24, 25, 26). controllable switches (21, 22, 23, 24, 25, 26) for connection to stator coils of the motor to control whether the coils are energised, a single position sensor responsive to the position of the rotor to provide indications of the timings of one or more positions of the rotor per revolution of the rotor, a position interpolator connected to receive the indications of timings of the rotor positions from the single position sensor, and to provide one or more indications of the timings of one or more estimated positions of the rotor between the timings indicated by the position sensor, a switch controller (27") connected to receive the indications of the timings from the position interpolator and the indications of the timings from the position sensor to determine timings of switch control signals connected to operate the switches (21, 22, 23, 24, 25, 26).
Method for using a cruise control system in a motor vehicle, with a speed setpoint that is able to be set by a driver on a setpoint generator, wherein, during the driving operation with an activated cruise control system set to a speed setpoint on the setpoint generator, a first permissible maximum speed is additionally automatically detected, wherein this first permissible maximum speed is communicated to the driver as a recommendation for immediate adoption as new speed setpoint, wherein an actuatable switching element is additionally activated for such immediate adoption as new speed setpoint, and wherein, after the switching element has been actuated, the new speed setpoint, which corresponds to the first, that is to say currently permissible maximum speed, is set and specified by the driver immediately on the cruise control system, characterized in that the first permissible maximum speed is communicated to the driver for adoption as new speed setpoint and the actuatable switching element is activated only if the value of the first permissible maximum speed is below the speed setpoint currently set by the driver, unless a second permissible maximum speed, which is lower than the first permissible maximum speed, had been detected and adopted previously. with a speed setpoint that is able to be set by a driver on a setpoint generator, wherein, during the driving operation with an activated cruise control system set to a speed setpoint on the setpoint generator, a first permissible maximum speed is additionally automatically detected, wherein this first permissible maximum speed is communicated to the driver as a recommendation for immediate adoption as new speed setpoint, wherein an actuatable switching element is additionally activated for such immediate adoption as new speed setpoint, and wherein, after the switching element has been actuated, the new speed setpoint, which corresponds to the first, that is to say currently permissible maximum speed, is set and specified by the driver immediately on the cruise control system, characterized in that the first permissible maximum speed is communicated to the driver for adoption as new speed setpoint and the actuatable switching element is activated only if the value of the first permissible maximum speed is below the speed setpoint currently set by the driver, unless a second permissible maximum speed, which is lower than the first permissible maximum speed, had been detected and adopted previously.
Process for preparing pyrazoles of formula (Ia) and ( Ib) in which R 1 and R 3 are each independently selected from C 1 -C 6 -haloalkyl, optionally halogen substituted C 1 -C 6 -alkylphenyl; R 2 is selected from H, halogen, COOH, (C=O)OR 4, CN and (C=O)NR 4 R 5; R 4 and R 5 are each independently selected from C 1-12 -alkyl, C 3-8 -cycloalkyl, C 6-18 -aryl, C 7-19 -arylalkyl and C 7-19 -alkylaryl or where R 4 and R 5 together with the nitrogen atom to which they are bonded may form a four-, five- or six-membered ring; characterized in that, in step, α,α-dihaloamines of the formula, in which X is independently selected from F, Cl or Br; R 8 and R 9 are each independently selected from C 1-12 -alkyl, C 3-8 -cycloalkyl, C 6-18 -aryl, C 7-19 -arylalkyl and C 7-19 -alkylaryl or where R 8 and R 9 together with the nitrogen atom to which they are bonded may form a five- or six-membered ring; R 1 is as defined above; are reacted with compounds of the formula, in which R 6 and R 7 are each independently selected from C 1-12 -alkyl, C 3-8 -cycloalkyl, C 6-18 -aryl, C 7-19 -arylalkyl and C 7-19 -alkylaryl or where R 6 and R 7 together form a five- or six-membered ring; R 2 and R 3 are as defined above to form the compound of formula in which the radicals are as defined above and that in step in the presence of an acid the cyclyzation of takes place. R 1 and R 3 are each independently selected from C 1 -C 6 -haloalkyl, optionally halogen substituted C 1 -C 6 -alkylphenyl; R 2 is selected from H, halogen, COOH, (C=O)OR 4, CN and (C=O)NR 4 R 5; R 4 and R 5 are each independently selected from C 1-12 -alkyl, C 3-8 -cycloalkyl, C 6-18 -aryl, C 7-19 -arylalkyl and C 7-19 -alkylaryl or where R 4 and R 5 together with the nitrogen atom to which they are bonded may form a four-, five- or six-membered ring; X is independently selected from F, Cl or Br; R 8 and R 9 are each independently selected from C 1-12 -alkyl, C 3-8 -cycloalkyl, C 6-18 -aryl, C 7-19 -arylalkyl and C 7-19 -alkylaryl or where R 8 and R 9 together with the nitrogen atom to which they are bonded may form a five- or six-membered ring; R 1 is as defined above; R 6 and R 7 are each independently selected from C 1-12 -alkyl, C 3-8 -cycloalkyl, C 6-18 -aryl, C 7-19 -arylalkyl and C 7-19 -alkylaryl or where R 6 and R 7 together form a five- or six-membered ring; R 2 and R 3 are as defined above
A method for controlling the ignition energy of a sparkplug of an ignition system, the method comprising: providing a base current (I base) and a base duration (D base) which corresponds to the primary current and duration, respectively, of a physical model at a fixed engine operating point; determining a risetime number which is based on a risetime statistical mean value and a risetime standard deviation; determining an operating condition indicator indicating an operating condition of the ignition system, which corresponds to an ignition density (ρ ip) of a fuel-air-mixture at an ignition time; determining an engine operating state which is either a stationary state or a transient state; determining a engine operating state based factor as a function of the determined engine operating state; determining a sparkplug state indicator as a value based on the determined risetime number and the determined operating condition indicator; determining a sparkplug state indicator based correction factor as a function of the sparkplug state indicator; and multiplying the base current (I base) and the base duration (D base) with the sparkplug state indicator based correction factor and with the engine operating state based factor for achieving a final global current (I glo) and a final global duration (D glo), respectively,; and communicating the final global current (I glo) and the final global duration (D glo) to a control unit for controlling the ignition energy and ignition duration of the sparkplug electrode. providing a base current (I base) and a base duration (D base) which corresponds to the primary current and duration, respectively, of a physical model at a fixed engine operating point; determining a risetime number which is based on a risetime statistical mean value and a risetime standard deviation; determining an operating condition indicator indicating an operating condition of the ignition system, which corresponds to an ignition density (ρ ip) of a fuel-air-mixture at an ignition time; determining an engine operating state which is either a stationary state or a transient state; determining a engine operating state based factor as a function of the determined engine operating state; determining a sparkplug state indicator as a value based on the determined risetime number and the determined operating condition indicator; determining a sparkplug state indicator based correction factor as a function of the sparkplug state indicator; and multiplying the base current (I base) and the base duration (D base) with the sparkplug state indicator based correction factor and with the engine operating state based factor for achieving a final global current (I glo) and a final global duration (D glo), respectively,; and communicating the final global current (I glo) and the final global duration (D glo) to a control unit for controlling the ignition energy and ignition duration of the sparkplug electrode.