mhurhangee/patent-ind-claim-en huggingface dataset:
Tyre for a heavy vehicle of construction plant type, comprising a crown reinforcement radially on the inside of a tread and radially on the outside of a carcass reinforcement , - the crown reinforcement comprising a protective reinforcement , a working reinforcement and a hoop reinforcement , - the protective reinforcement , which is radially outermost in the crown reinforcement , comprising at least one protective layer , the protective layer comprising metallic reinforcers that form an angle at least equal to 10° with a circumferential direction (XX') tangential to the circumference of the tyre, - the working reinforcement comprising at least two working layers , each working layer comprising metallic reinforcers that form an angle at least equal to 15° and at most equal to 45° with the circumferential direction (XX') and are crossed from one working layer to the next, - the hoop reinforcement being formed by a circumferential winding, in the circumferential direction (XX'), of a ply of metallic reinforcers extending from an initial radially inner end to a final radially outer end , forming a spiral, such that the hoop reinforcement comprises at least two hooping layers around the entire circumference and at least three hooping layers over an angular sector A, delimited by the initial and final ends , respectively, of the hoop reinforcement , the metallic reinforcers of the hoop reinforcement forming an angle at most equal to 2.5° with the circumferential direction (XX'), characterized in that the hoop reinforcement comprises at least one discontinuity positioned circumferentially between the initial end and final end , respectively, and in that any discontinuity is positioned circumferentially, with respect to the initial or final end , forming an angle (B1, B2) at least equal to 90°. - the crown reinforcement comprising a protective reinforcement , a working reinforcement and a hoop reinforcement , - the protective reinforcement , which is radially outermost in the crown reinforcement , comprising at least one protective layer , the protective layer comprising metallic reinforcers that form an angle at least equal to 10° with a circumferential direction (XX') tangential to the circumference of the tyre, - the working reinforcement comprising at least two working layers , each working layer comprising metallic reinforcers that form an angle at least equal to 15° and at most equal to 45° with the circumferential direction (XX') and are crossed from one working layer to the next, - the hoop reinforcement being formed by a circumferential winding, in the circumferential direction (XX'), of a ply of metallic reinforcers extending from an initial radially inner end to a final radially outer end , forming a spiral, such that the hoop reinforcement comprises at least two hooping layers around the entire circumference and at least three hooping layers over an angular sector A, delimited by the initial and final ends , respectively, of the hoop reinforcement , the metallic reinforcers of the hoop reinforcement forming an angle at most equal to 2.5° with the circumferential direction (XX'),
A multipurpose carrier configured for transporting one or more passengers and/or cargo by pushing or pulling the carrier , the multipurpose carrier comprising: - a chassis forming the load bearing structure of the carrier , - at least three wheels associated with the chassis , wherein at least one wheel forms part of a wheel assembly comprising a base in relation to which the wheel can rotate around at least a first wheel rotation axis (A1), wherein the wheel assembly is configured to be arranged in relation to the multipurpose carrier in at least a first orientation in relation to a wheel assembly rotation axis (A3) in which the wheel of the wheel assembly is arranged in a use state and in a second orientation and a third orientation around the wheel assembly rotation axis (A3), the first orientation being separated from the second orientation by an angular separation of the wheel assembly around the wheel assembly rotation axis (A3) and the first orientation being separated from the third orientation by an angular separation of the wheel assembly around the wheel assembly rotation axis (A3), and wherein the wheel assembly in the second orientation thereof is releasable from the multipurpose carrier and wherein the wheel assembly in the third orientation thereof is in a stowed state. - a chassis forming the load bearing structure of the carrier , - at least three wheels associated with the chassis , wherein at least one wheel forms part of a wheel assembly comprising a base in relation to which the wheel can rotate around at least a first wheel rotation axis (A1), wherein the wheel assembly is configured to be arranged in relation to the multipurpose carrier in at least a first orientation in relation to a wheel assembly rotation axis (A3) in which the wheel of the wheel assembly is arranged in a use state and in a second orientation and a third orientation around the wheel assembly rotation axis (A3), the first orientation being separated from the second orientation by an angular separation of the wheel assembly around the wheel assembly rotation axis (A3) and the first orientation being separated from the third orientation by an angular separation of the wheel assembly around the wheel assembly rotation axis (A3), and wherein the wheel assembly in the second orientation thereof is releasable from the multipurpose carrier and wherein the wheel assembly in the third orientation thereof is in a stowed state.
Epilamization method of at least one part of a substrate surface comprising the steps of: a) preparing an epilame agent, b) optionally, preparing the substrate surface, c) placing the substrate and the epilame agent in a chamber at ambient pressure, d) introducing CO 2 into the hermetically sealed chamber at a pressure comprised between 25 bar and 74 bar, preferably between 45 bar and 70 bar, and more preferably between 50 bar and 60 bar, and at a temperature comprised between 10°C and 80°C, and preferably between 25°C and 60°C, and more preferably between 30°C and 50°C, for a duration comprised between 1 minute and 30 minutes, preferably between 1 minute and 20 minutes, and more preferably between 3 minutes and 15 minutes, e) reducing the pressure in the chamber, and f) removing the epilamized substrate from the chamber, the method being characterized in that the epilame agent is in the form of a solution in a solvent, the concentration thereof in the solvent/CO 2 mixture being comprised between 10 mg and 5 g per 1000 g of mixture (CO 2 +solvent), preferably between 50 mg and 1 g per 1000 g of mixture (CO 2 +solvent), more preferably between 100 mg and 500 mg per 1000 g of mixture (CO 2 +solvent). a) preparing an epilame agent, b) optionally, preparing the substrate surface, c) placing the substrate and the epilame agent in a chamber at ambient pressure, d) introducing CO 2 into the hermetically sealed chamber at a pressure comprised between 25 bar and 74 bar, preferably between 45 bar and 70 bar, and more preferably between 50 bar and 60 bar, and at a temperature comprised between 10°C and 80°C, and preferably between 25°C and 60°C, and more preferably between 30°C and 50°C, for a duration comprised between 1 minute and 30 minutes, preferably between 1 minute and 20 minutes, and more preferably between 3 minutes and 15 minutes, e) reducing the pressure in the chamber, and f) removing the epilamized substrate from the chamber,
An article comprising: a thermoplastic polymer skin layer having opposite first and second major surfaces; a barrier stack coated on the first major surface of the thermoplastic polymer skin layer, the thermoplastic polymer skin layer and the barrier stack forming an integral protective layer , the integral protective layer having a thickness no greater than 12.7 micrometers; and a removable carrier film having a major surface releasably attached to the second major surface of the thermoplastic polymer skin layer, the removable carrier film being configured to support the integral protective layer, wherein the attachment of the barrier stack to the thermoplastic polymer skin layer is substantially stronger than the attachment of the removable carrier film to the thermoplastic polymer skin layer such that the integral protective layer tends to delaminate along a delamination surface corresponding to the interface between the removable carrier film and the thermoplastic polymer skin layer. a thermoplastic polymer skin layer having opposite first and second major surfaces; a barrier stack coated on the first major surface of the thermoplastic polymer skin layer, the thermoplastic polymer skin layer and the barrier stack forming an integral protective layer , the integral protective layer having a thickness no greater than 12.7 micrometers; and a removable carrier film having a major surface releasably attached to the second major surface of the thermoplastic polymer skin layer, the removable carrier film being configured to support the integral protective layer, wherein the attachment of the barrier stack to the thermoplastic polymer skin layer is substantially stronger than the attachment of the removable carrier film to the thermoplastic polymer skin layer such that the integral protective layer tends to delaminate along a delamination surface corresponding to the interface between the removable carrier film and the thermoplastic polymer skin layer.
A heat protection product comprising - a felt layer comprising polysulfonamide fibers - a textile layer comprising inorganic fibers wherein said textile layer comprises a metal layer , wherein said metal layer is applied to said textile layer by vapor deposition, or said metal layer is adhesively bonded to said textile layer , and wherein said metal layer is an exterior layer. - a felt layer comprising polysulfonamide fibers - a textile layer comprising inorganic fibers
A curved display bonding apparatus for bonding a display unit (D) to a curved glass (G), the curved display bonding apparatus comprising: a lower chamber in which a lower space (S1) is formed; an upper chamber which is arranged above the lower chamber and in which an upper space (S2) is formed, wherein the lower space (S1) and the upper space (S2) are configured to receive the display unit (D) and the curved glass (G); an upper adsorption mechanism accommodated in the upper space (S2) configured to adsorb the display unit (D) and configured to be raisable and lowerable for lifting up and lowering the display unit (D); a flexible stage accommodated in the lower space (S1) and having a deformable outer shape configured to adapt to the curved glass and support the curved glass (G); and a wire stage comprising a plurality of wires such that the curved glass (G) is seatable on an outer surface of the wires , wherein the wires of at least a pair of the plurality of wires are spaced apart from each other, and the plurality of wires is located above the flexible stage and is configured to be lowered or lifted up such that the plurality of wires is stable on and liftable from the flexible stage such that the plurality of wires is either seated on the flexible stage or is spaced apart from the flexible stage . a lower chamber in which a lower space (S1) is formed; an upper chamber which is arranged above the lower chamber and in which an upper space (S2) is formed, wherein the lower space (S1) and the upper space (S2) are configured to receive the display unit (D) and the curved glass (G); an upper adsorption mechanism accommodated in the upper space (S2) configured to adsorb the display unit (D) and configured to be raisable and lowerable for lifting up and lowering the display unit (D); a flexible stage accommodated in the lower space (S1) and having a deformable outer shape configured to adapt to the curved glass and support the curved glass (G); and a wire stage comprising a plurality of wires such that the curved glass (G) is seatable on an outer surface of the wires , wherein the wires of at least a pair of the plurality of wires are spaced apart from each other, and the plurality of wires is located above the flexible stage and is configured to be lowered or lifted up such that the plurality of wires is stable on and liftable from the flexible stage such that the plurality of wires is either seated on the flexible stage or is spaced apart from the flexible stage .
A composition consisting essentially of a) 0.54 - 0.62 % (w/v) olopatadine free base or an equivalent amount of a pharmaceutically acceptable salt of olopatadine; b) a phosphate salt in an amount equivalent to 0.2 - 0.8 % (w/v) dibasic sodium phosphate, wherein the phosphate salt selected from the group consisting of monobasic sodium phosphate; dibasic sodium phosphate; tribasic sodium phosphate; monobasic potassium phosphate; dibasic potassium phosphate; and tribasic potassium phosphate; c) 0.3 - 0.6 % (w/v) NaCl; d) a pH-adjusting agent in an amount sufficient to cause the composition to have a pH of 3.5 - 3.95; e) 0.005 - 0.015 % (w/v) benzalkonium chloride; f) 0.005 - 0.015 % (w/v) edetate disodium; and g) water. a) 0.54 - 0.62 % (w/v) olopatadine free base or an equivalent amount of a pharmaceutically acceptable salt of olopatadine; b) a phosphate salt in an amount equivalent to 0.2 - 0.8 % (w/v) dibasic sodium phosphate, wherein the phosphate salt selected from the group consisting of monobasic sodium phosphate; dibasic sodium phosphate; tribasic sodium phosphate; monobasic potassium phosphate; dibasic potassium phosphate; and tribasic potassium phosphate; c) 0.3 - 0.6 % (w/v) NaCl; d) a pH-adjusting agent in an amount sufficient to cause the composition to have a pH of 3.5 - 3.95; e) 0.005 - 0.015 % (w/v) benzalkonium chloride; f) 0.005 - 0.015 % (w/v) edetate disodium; and g) water.
A non-linear double-motion circuit breaker comprising a primary movable contact and a secondary movable contact slidingly mounted within a primary holder and a secondary holder respectively, wherein the primary movable contact comprises a tulip and a contact cylinder attached thereto, and the secondary movable contact comprises a pin having a pin tip , the circuit breaker further comprising a linkage mechanism arranged to allow non-linear movement of the secondary movable contact in an opposite direction to the movement of the primary movable contact , wherein the secondary movable contact does not comprise a counter-contact for engaging the contact cylinder , characterised in that the secondary holder has a fixed dielectric shield at an end opposing the primary holder , and in that the linkage mechanism comprises a pivoted driving lever , a driving rod extending therefrom to the primary movable contact , a pivoted driven lever , and a driven rod extending therefrom to the secondary movable contact , the driving lever and driven lever being connected to each other through a pin and slot connection , the follower pin being provided on the driving lever and the slot being provided on the driven lever .
Brake pad for a disc brake, in particular for a disc brake for a commercial vehicle, having a backing plate which bears a friction lining and to which an element which can move in relation to the backing plate is connected, and having an electric wear sensor , characterised in that the wear sensor is arranged on the element which can move in relation to the backing in such a way that the wear sensor itself can move in relation to the backing plate .
Method for saturation detection of a current transformer, wherein the converted current signal is sampled discretely in time and the sampled value per time step is stored by a computing unit in a measured value memory, the model parameters of a signal model having an alternating current element and an exponential direct current element are determined on the basis of a plurality of sampled values and the model parameters are stored in a parameter memory, characterised in that a continuous sum of the sampled values , the effective value of the alternating current element with its mean value and its variance, the base of the exponential direct current element with its mean value and the coefficient of the direct current element with its continuous sum are determined as calculation parameter in successive time steps and a saturation signal is output if the mean value of the base lies outside a base normal range, the mean value of the effective value lies above a first nominal current limit value, the variance of the effective value lies above a minimum variance and the sign of the sampled value coincides with the sign of the continuous sum of the sampled values and the continuous sum of the coefficients of the direct current element.
Sealing sleeve for a pipe assembly with at least two inner pipes for receiving electrical conductors, such as cables, and a flexible sheath, surrounding the at least two inner pipes, comprising at least two sleeve shells , more particularly sleeve half-shells which surround the pipe assembly and delimit an insertion opening and a pipe outlet opening , a sealing mat separated in the longitudinal direction (L) of the sealing sleeve , a sealing washer for sealing the pipe outlet opening with at least two passages, each one of which can receive an inner pipe forming a circumferential, closed inner pipe sealing surface, and a clamping device that can be applied externally on the sleeve shells for mutually clamping the sleeve shells , wherein the sealing mat forms several circumferential annular protrusions (51 a, b, c, d) extending radially inwards to the sheath for sealing the inlet opening and between two annular protrusions (51a, b, c, d) a circumferential annular groove (61a, b, c), characterised in that the clamping device presses the sealing mat against the sheath of the pipe assembly , during clamping the respective elastically deformed annual protrusions (51a, b, c, d) move out of the way so that at least one circumferentially closed sheath sealing surface (53a, b, c, d) is formed between at least one annular protrusion (51a, b, c, d) and the sheath, wherein the several annular protrusions (51a, b, c, d) are at different radial distances from each other with regard to the middle axis (A).
A maintenance support system comprising: an imaging device ; a first identifying device configured to identify a predetermined first three-dimensional area (TA) including industrial equipment that is a maintenance target (T) and/or to identify a predetermined second three-dimensional area (SA) excluding the industrial equipment that is the maintenance target (T), with reference to a predetermined reference point (M) in a captured image acquired by the imaging device in an initial state; a second identifying device configured to identify a mask pixel area excluding an effective pixel area (MA) corresponding to the first three-dimensional area (TA) and/or to identify a mask pixel area (MA) corresponding to the second three-dimensional area (SA), in the captured image acquired by the imaging device , in a post-movement state in which the imaging device has moved; a processed-image generating device configured to generate a processed image in which the mask pixel area (MA) identified by the second identifying device is made invisible for the captured image acquired by the imaging device in the post-movement state; and a communication device configured to transmit the processed image generated by the processed-image generating device to a support terminal operated by a maintenance supporter; the reference point (M) is defined by a marker, and the imaging device is included in a wearable terminal device worn by a maintenance worker. an imaging device ; a first identifying device configured to identify a predetermined first three-dimensional area (TA) including industrial equipment that is a maintenance target (T) and/or to identify a predetermined second three-dimensional area (SA) excluding the industrial equipment that is the maintenance target (T), with reference to a predetermined reference point (M) in a captured image acquired by the imaging device in an initial state; a second identifying device configured to identify a mask pixel area excluding an effective pixel area (MA) corresponding to the first three-dimensional area (TA) and/or to identify a mask pixel area (MA) corresponding to the second three-dimensional area (SA), in the captured image acquired by the imaging device , in a post-movement state in which the imaging device has moved; a processed-image generating device configured to generate a processed image in which the mask pixel area (MA) identified by the second identifying device is made invisible for the captured image acquired by the imaging device in the post-movement state; and a communication device configured to transmit the processed image generated by the processed-image generating device to a support terminal operated by a maintenance supporter; the reference point (M) is defined by a marker, and the imaging device is included in a wearable terminal device worn by a maintenance worker.
Method for determining an operational parameter for an imaging device for imaging at least one part of a build plane , in particular for a determination device for determining at least one parameter of an energy beam for an apparatus for additively manufacturing three-dimensional objects , comprising: - determining at least one spot parameter that relates to an extension of a spot , in particular a spot of an energy beam , in a determination plane; - determining a difference between the determined spot parameter and a nominal spot parameter; - determining an imaging parameter of the imaging device based on the determined difference; and - adjusting the imaging parameter based on the determined difference, characterized by - determining the spot parameter for multiple different imaging parameters and adjusting the imaging parameter corresponding to the minimal spot parameter; and - controlling at least one irradiation parameter based on the minimal spot parameter. - determining at least one spot parameter that relates to an extension of a spot , in particular a spot of an energy beam , in a determination plane; - determining a difference between the determined spot parameter and a nominal spot parameter; - determining an imaging parameter of the imaging device based on the determined difference; and - adjusting the imaging parameter based on the determined difference, characterized by - determining the spot parameter for multiple different imaging parameters and adjusting the imaging parameter corresponding to the minimal spot parameter; and - controlling at least one irradiation parameter based on the minimal spot parameter.
Wall system for composing a flat wall , in particular a wall, floor, ceiling, roof or the like, wherein the wall system is composed of wooden beams which extend parallel to each other lengthways with their side edges mounted opposite each other with a minimum breadthways clearance (S,S',6) always remaining between them in the event of the highest wood humidity, the beams being mounted by means of anchoring elements which are mounted in or on the beams and which in mounted condition of the wall are kept apart at a fixed defined distance (L) by means of spacers which extend through passages in the beams , said passages extending and connecting breadthways (B) of the beams and in each other's extension, whereby the anchoring elements are anchored relative to the passages in an axial and radial direction as well as against rotating around the axial passage direction (X-X') of the passages , the anchoring elements defining fixed nodes of the beams with a fixed diagonal distance between the nodes where the beams are kept by the anchoring elements for providing a better stability and strut rigidity.