mhurhangee/ep-ind-claims huggingface dataset:
Method for producing a printing subsurface for direct printing for producing a decorative panel, comprising the steps: a) providing a plate-shaped carrier; b) optionally applying a resin layer onto the plate-shaped carrier; c) optionally applying a paper or nonwoven layer onto the plate-shaped carrier; d) optionally calendering the resulting layer structure, in particular at a temperature between ≥ 40° and ≤ 250°C; e) successive twofold application of a respective resin composition to form two resin-containing layers (141, 142); f) drying the resin composition applied in step e) under the action of heat; and g) subsequently treating the resin composition applied in step e) and dried in step f) with UV radiation, characterized in that in step e) a successive twofold application of a respective resin composition to form two resin-containing layers (141, 142) is carried out by use of the steps: e1) forming a first resin-containing layer by use of a resin composition including a mixture of melamine resin and urea resin; and e2) forming a second resin-containing layer by use of a resin composition including a quantity of melamine resin in the resin content which is in a range of ≥ 95 wt.-%, in particular ≥ 99 wt.-%. a) providing a plate-shaped carrier; b) optionally applying a resin layer onto the plate-shaped carrier; c) optionally applying a paper or nonwoven layer onto the plate-shaped carrier; d) optionally calendering the resulting layer structure, in particular at a temperature between ≥ 40° and ≤ 250°C; e) successive twofold application of a respective resin composition to form two resin-containing layers (141, 142); f) drying the resin composition applied in step e) under the action of heat; and g) subsequently treating the resin composition applied in step e) and dried in step f) with UV radiation, characterized in that in step e) a successive twofold application of a respective resin composition to form two resin-containing layers (141, 142) is carried out by use of the steps: e1) forming a first resin-containing layer by use of a resin composition including a mixture of melamine resin and urea resin; and e2) forming a second resin-containing layer by use of a resin composition including a quantity of melamine resin in the resin content which is in a range of ≥ 95 wt.-%, in particular ≥ 99 wt.-%. e1) forming a first resin-containing layer by use of a resin composition including a mixture of melamine resin and urea resin; and e2) forming a second resin-containing layer by use of a resin composition including a quantity of melamine resin in the resin content which is in a range of ≥ 95 wt.-%, in particular ≥ 99 wt.-%.
A container for aerial delivery of a payload, comprising: a fixed box; a lid adapted to close the fixed box; a sleeve surrounding the fixed box, wherein the sleeve is open on at least one end and is movable between a first, collapsed position and a second, extended position; characterized in that the container further comprises at least one one-way slide sheet positioned between the fixed box and the sleeve, the one-way slide sheet comprising a first component positioned on the fixed box and a second component positioned on the sleeve, wherein the one-way slide sheet is adapted to allow unrestricted movement of the sleeve toward the second position and resists movement of the sleeve toward the first position during impact with the ground. a fixed box; a lid adapted to close the fixed box; a sleeve surrounding the fixed box, wherein the sleeve is open on at least one end and is movable between a first, collapsed position and a second, extended position; characterized in that the container further comprises at least one one-way slide sheet positioned between the fixed box and the sleeve, the one-way slide sheet comprising a first component positioned on the fixed box and a second component positioned on the sleeve, wherein the one-way slide sheet is adapted to allow unrestricted movement of the sleeve toward the second position and resists movement of the sleeve toward the first position during impact with the ground.
A heat dissipation base comprising: an insulating supporting substrate; a plurality of circuit members containing copper and formed on a first main surface of the supporting substrate; and a heat dissipation member formed on a second main surface of the supporting substrate, the second main surface being opposite to the first main surface, wherein the plurality of the circuit members are arranged on the first main surface of the supporting substrate, and each of the plurality of circuit members is joined to the supporting substrate through a joining layer, wherein the joining layer comprises silver and copper as main components; at least one element A selected from indium, zinc and tin; at least one element B selected from titanium, zirconium, hafnium and niobium; and at least one element C selected from molybdenum, rhenium and tungsten, and wherein the element C in the joining layer has an average crystal grain diameter of not less than 3 μm and not more than 10 μm. an insulating supporting substrate; a plurality of circuit members containing copper and formed on a first main surface of the supporting substrate; and a heat dissipation member formed on a second main surface of the supporting substrate, the second main surface being opposite to the first main surface, wherein the plurality of the circuit members are arranged on the first main surface of the supporting substrate, and each of the plurality of circuit members is joined to the supporting substrate through a joining layer, wherein the joining layer comprises silver and copper as main components; at least one element A selected from indium, zinc and tin; at least one element B selected from titanium, zirconium, hafnium and niobium; and at least one element C selected from molybdenum, rhenium and tungsten, and wherein the element C in the joining layer has an average crystal grain diameter of not less than 3 μm and not more than 10 μm.
An inverter comprising a bridge circuit with a first bridge input and a second bridge input and further comprising a first DC input and a second DC input, characterized in that the inverter comprises an actively controllable input switch, a snubber capacitor, a series circuit of a first diode and a first inductor, a split DC intermediate circuit and a second diode, in that the first bridge input is connected to the first DC input via the actively controllable input switch, in that the snubber capacitor connects the first bridge input to a first connection point, in that the series circuit of the first diode and the first inductor connects the first connection point to the center tap of the split DC intermediate circuit arranged between the first DC input and the second DC input, the first diode being polarized in such a way that the snubber capacitor is charged when the input switch is switched on, and in that the second diode connects the first connection point to the second DC input or to the second bridge input, the second diode being polarized in such a way that the snubber capacitor is discharged when the input switch is switched off.
An electric storage device comprising: an electrode assembly; a case that includes a defining wall and houses the electrode assembly; a sealing member that is arranged on the defining wall; and a conductive member (12; 14) that is electrically connected to the electrode assembly, the conductive member being supported by the sealing member, wherein at least a portion of the defining wall where the sealing member is arranged comprises an aluminum-based metallic material; the sealing member comprises a material that is softer than the material for the portion of the defining wall where the sealing member is arranged, characterized in that: the sealing member comprises polyphenylene sulfide resin and elastomer, the elastomer is contained in an amount of 2% to 20% by weight, and the conductive member (12; 14) is crimped in such a manner that the sealing member is pressed against the defining wall. an electrode assembly; a case that includes a defining wall and houses the electrode assembly; a sealing member that is arranged on the defining wall; and a conductive member (12; 14) that is electrically connected to the electrode assembly, the conductive member being supported by the sealing member, wherein at least a portion of the defining wall where the sealing member is arranged comprises an aluminum-based metallic material; the sealing member comprises a material that is softer than the material for the portion of the defining wall where the sealing member is arranged, characterized in that: the sealing member comprises polyphenylene sulfide resin and elastomer, the elastomer is contained in an amount of 2% to 20% by weight, and the conductive member (12; 14) is crimped in such a manner that the sealing member is pressed against the defining wall. the sealing member comprises polyphenylene sulfide resin and elastomer, the elastomer is contained in an amount of 2% to 20% by weight, and the conductive member (12; 14) is crimped in such a manner that the sealing member is pressed against the defining wall.
A method performed by a transmitting device in a wireless communication system, comprising: generating a signal comprising data to be transmitted to a receiving device during a symbol by modulating the data on L-K L-combs, wherein each L-comb has an associated group of subcarriers that are separated from one another by L-1 subcarriers, wherein L L-combs represent a total number of L-combs for the symbol and K L-combs comprise a number of L-combs whose associated subcarriers are not to be modulated by the transmitting device, wherein each of the L L-combs and the K L-combs have an associated group of subcarriers that are separated from one another by L-1 subcarriers; and transmitting the generated signal to the receiving device during at least a portion of the symbol. generating a signal comprising data to be transmitted to a receiving device during a symbol by modulating the data on L-K L-combs, wherein each L-comb has an associated group of subcarriers that are separated from one another by L-1 subcarriers, wherein L L-combs represent a total number of L-combs for the symbol and K L-combs comprise a number of L-combs whose associated subcarriers are not to be modulated by the transmitting device, wherein each of the L L-combs and the K L-combs have an associated group of subcarriers that are separated from one another by L-1 subcarriers; and transmitting the generated signal to the receiving device during at least a portion of the symbol.
A motor vehicle comprising a power train and a cradle part connected to one another by an anti-torque rod having at least one end mounted so as to pivot about a pivot axis carried by said power train such that the anti-torque rod and the power train can move with respect to one another during a normal operation of the vehicle, between a first end position in which the anti-torque rod and the power train are close to one another, and a second end position in which the anti-torque rod and the power train are remote from one another, characterized in that it comprises a rupture member (7; 8) mounted in a fixed manner on the power train and extending opposite the anti-torque rod beyond the first end position, the rupture member being a steel spring rod or a steel plate fitted in a fixing yoke of the anti-torque rod on the power train, said rupture member (7; 8) having a structure causing a rupture of the anti-torque rod in the case of an impact between the anti-torque rod and the rupture member (7; 8).
Motor vehicle, comprising at least one motor vehicle panel or motor vehicle side door which can be moved relative to a motor vehicle body and can be pivoted about an axis relative to the motor vehicle body, and comprising an deployment unit (3, 4) which has a deployment element comprising an associated drive, wherein the deployment element can be transferred, relative to the motor vehicle body and/or the motor vehicle panel, into at least a retracted position and an extended position with the aid of the drive, wherein as soon as the deployment element has assumed its extended position, a gap is established between the motor vehicle body and the motor vehicle panel or motor vehicle side door, through which gap a user can grip the motor vehicle panel or motor vehicle side door and pivot it manually completely about its axis relative to the motor vehicle body, characterized in that the deployment element has a lighting unit. which has a deployment element comprising an associated drive, wherein the deployment element can be transferred, relative to the motor vehicle body and/or the motor vehicle panel, into at least a retracted position and an extended position with the aid of the drive, wherein as soon as the deployment element has assumed its extended position, a gap is established between the motor vehicle body and the motor vehicle panel or motor vehicle side door, through which gap a user can grip the motor vehicle panel or motor vehicle side door and pivot it manually completely about its axis relative to the motor vehicle body, characterized in that the deployment element has a lighting unit.
A non-therapeutic method for providing sialic acid to a female, comprising administering a sialic acid in the form of n-acetylneuraminic acid or its precusor N-acetyl-mannosamine to the female during at least one of the stages of pregnancy and lactation, wherein the sialic acid provides a developmental benefit to the nervous system and/or brain of a fetus or child of the female.
Assembly for fixing a plurality of cables grouped together using at least one clamping means, said assembly comprising a plate which is provided with a first face and a second face, said assembly further comprising at least one retention means, the plurality of cables which are clamped together being intended to extend and be fixed to the first face of the plate by at least one retention means, the plate comprising at least one indentation which extends through the plate from the first face to the second face, the indentation comprises two branches, the branches each comprising a first end portion and a second end portion, the first end portions of the branches being aligned in a first direction, the second end portions of the branches being aligned in a second direction different from the first so that the retention means is introduced into the first end portions of the branches from the first face in the first direction so as to move a portion of the retention means to the second face of the plate, then is moved in the branches in the second direction so as to be retained on the plate at the second end portions of the branches characterized in that, the retention means are formed by a clamping collar which further comprises two lugs which extend in a substantially parallel manner and which are intended to be introduced into the first end portions of the branches, the end portions of the lugs comprising means for locking the retention means on the plate formed by shoulders which extend substantially perpendicularly relative to the lugs, to allow the shoulders to pass, the first end portions of the branches 14 comprising means for introducing the lugs formed by a recess which is provided at each first end portion of the branches.
An additive manufacturing system comprising: an extruder having a motor; a gantry assembly for moving the extruder along toolpaths; a pressure sensor producing pressure values representing sensed pressure in the extruder; characterized by a model, receiving speed values for the motor and generating a predicted pressure value from the speed values wherein the speed values for the motor change while the gantry moves the extruder a long a tool path; and a response threshold module setting a response threshold pressure value based on the predicted pressure value such that when the response threshold pressure value is between a pressure value from the pressure sensor and the predicted pressure value, a response is executed. an extruder having a motor; a gantry assembly for moving the extruder along toolpaths; a pressure sensor producing pressure values representing sensed pressure in the extruder; characterized by a model, receiving speed values for the motor and generating a predicted pressure value from the speed values wherein the speed values for the motor change while the gantry moves the extruder a long a tool path; and a response threshold module setting a response threshold pressure value based on the predicted pressure value such that when the response threshold pressure value is between a pressure value from the pressure sensor and the predicted pressure value, a response is executed.
A displacement pump for pumping a fluid, the displacement pump comprising: - an electric motor including a stator and a rotor; - a first fluid displacer and a second fluid displacer configured to pump fluid and connected to the rotor to be driven by the rotor; - a cooling circuit including a flowpath about an exterior of a motor housing that houses the electric motor, wherein the flowpath is disposed between the first fluid displacer and the second fluid displacer; and - a fan assembly configured to blow air through the cooling circuit. - an electric motor including a stator and a rotor; - a first fluid displacer and a second fluid displacer configured to pump fluid and connected to the rotor to be driven by the rotor; - a cooling circuit including a flowpath about an exterior of a motor housing that houses the electric motor, wherein the flowpath is disposed between the first fluid displacer and the second fluid displacer; and - a fan assembly configured to blow air through the cooling circuit.
An endoscope, comprising: a shaft comprising a longitudinal axis, a proximal end and a distal end; and a rotating device attached to the shaft, the rotating device comprising a plurality of arms (211a-211e) that extend radially from the longitudinal axis of the shaft and that are actuated by an operator's finger to rotate the rotating device and the shaft, and wherein the endoscope further comprises a port located at the proximal end of the shaft and extending away from the shaft and in a direction non-parallel to the longitudinal axis of the shaft, and an eyepiece or attachment to a camera, the eyepiece or the attachment to the camera being located proximally to the port, and wherein the port is a light port, and wherein the rotating device is provided between the light port and the eyepiece, and wherein the plurality of arms (211a-211e) of the rotating device extend radially beyond an outer diameter of the eyepiece to allow access by an operator's finger to manually push on one of the plurality of arms to rotate the rotating device and the shaft, characterized in that the rotating device is a unitary device with features for removably snap fitting the rotating device onto the shaft of the endoscope and wherein the rotating device comprises a collet configured to snap-fit onto the light port, and wherein the plurality of arms (211a-211e) have a starfish configuration. a shaft comprising a longitudinal axis, a proximal end and a distal end; and a rotating device attached to the shaft, the rotating device comprising a plurality of arms (211a-211e) that extend radially from the longitudinal axis of the shaft and that are actuated by an operator's finger to rotate the rotating device and the shaft, and wherein the endoscope further comprises a port located at the proximal end of the shaft and extending away from the shaft and in a direction non-parallel to the longitudinal axis of the shaft, and an eyepiece or attachment to a camera, the eyepiece or the attachment to the camera being located proximally to the port, and wherein the port is a light port, and wherein the rotating device is provided between the light port and the eyepiece, and wherein the plurality of arms (211a-211e) of the rotating device extend radially beyond an outer diameter of the eyepiece to allow access by an operator's finger to manually push on one of the plurality of arms to rotate the rotating device and the shaft, characterized in that the rotating device is a unitary device with features for removably snap fitting the rotating device onto the shaft of the endoscope and wherein the rotating device comprises a collet configured to snap-fit onto the light port, and wherein the plurality of arms (211a-211e) have a starfish configuration.
A positive airway interface system comprising: a nasal mask (10, 300), the nasal mask further comprising: an internal support structure; an external shell disposed over the internal support structure; a plurality of attachment mechanisms provided about an external surface of the external shell; a user interface aperture; and an inlet aperture; characterized in that: the plurality of attachment mechanisms extend through the external shell so as to mechanically couple to the internal support structure. an internal support structure; an external shell disposed over the internal support structure; a plurality of attachment mechanisms provided about an external surface of the external shell; a user interface aperture; and an inlet aperture;
Coating tool comprising: a first means for reversible holding and fixing a catalyst monolith to be coated with a washcoat; a second means to control the inflow of the washcoat into the monolith; said second means being attached to said first means such that during the coating process said second means comes into contact with the washcoat before it reaches the monolith; said second means having the form of a plate comprising holes having, when in use, an inlet side towards the washcoat and an outlet side towards the monolith, and channels providing a communication from the inlet side to the outlet side for the washcoat to flow through; wherein at least part of said channels have an asymmetric channel width along their axis being wider at the washcoat inlet side than at a point within the channels and are wider at the washcoat outlet side than at a point within the channels; and wherein the area which shows a smaller diameter of the channels of said holes is at least for some of the holes aligned more closely to the outlet than to the in-let side. a first means for reversible holding and fixing a catalyst monolith to be coated with a washcoat; a second means to control the inflow of the washcoat into the monolith; said second means being attached to said first means such that during the coating process said second means comes into contact with the washcoat before it reaches the monolith; said second means having the form of a plate comprising holes having, when in use, an inlet side towards the washcoat and an outlet side towards the monolith, and channels providing a communication from the inlet side to the outlet side for the washcoat to flow through;
A method for measuring a geometry of an eye on an eye to be examined using an ophthalmological analysis system, comprising a first interferometric analysis system and a second non-interferometric analysis system, measured data describing relative distances being obtained from optical boundary surfaces (26, 27, 29, 30, 32) of the eye on a measurement axis (16, 41) using the first analysis system, at least one image data set being obtained from optical boundary surfaces of the eye on the measurement axis using the second analysis system, a processing device of the ophthalmological analysis system processing the measured data and the image data set, characterized in that the image data set is corrected by means of the processing device using the measured data, said processing device being configured for identifying a position of the optical boundary surfaces on the measurement axis from measured data and the image data set, respectively, relative to the measurement axis (16, 41) by means of image processing and for computing relative distances of the boundary surfaces of the image data set and the measured data and for correcting the image data set for an area, which overlaps with the measured data, in such a manner that the relative distances of the image data set correspond to the relative distances of the measured data.