mhurhangee/ep-ind-claims huggingface dataset:
Device for producing an elongate hollow profile element with at least one axial opening in which a pulling wire is arranged to be axially pullable relative to the hollow profile element, wherein the pulling wire serves to transmit a pivoting movement of a control element to a bending unit, with: two counter-bearings (11, 12) arranged at opposite sides of the device and corresponding to the long ends of the elongate hollow profile element, wherein one end of the at least one pulling wire is anchored to the distal counter-bearing, and a mould (2a, 2b) forming a sealed elongate cavity that can be filled with a hardening material that forms the hollow profile element, wherein the cavity extends between the two counter-bearings (11, 12), and the pulling wire extends in the cavity such that it does not touch the cavity wall, wherein the two counter-bearings (11, 12) are inserted into the mould (2a, 2b), and wherein, at the end of production, the at least one pulling wire remains arranged in the hardened material, axially pullable relative to the hollow profile element. two counter-bearings (11, 12) arranged at opposite sides of the device and corresponding to the long ends of the elongate hollow profile element, wherein one end of the at least one pulling wire is anchored to the distal counter-bearing, and a mould (2a, 2b) forming a sealed elongate cavity that can be filled with a hardening material that forms the hollow profile element, wherein the cavity extends between the two counter-bearings (11, 12), and the pulling wire extends in the cavity such that it does not touch the cavity wall, wherein the two counter-bearings (11, 12) are inserted into the mould (2a, 2b), and wherein, at the end of production, the at least one pulling wire remains arranged in the hardened material, axially pullable relative to the hollow profile element.
A method for producing at least one optoelectronic semiconductor component, comprising the following steps: a) providing a carrier having a top side, an underside situated opposite the top side of the carrier, and a plurality of connection areas arranged at the top side alongside one another in a lateral direction; b) applying a plurality of optoelectronic components arranged at a distance from one another in a lateral direction at the top side of the carrier, said components each having at least one contact area facing away from the carrier; c) applying protective elements (41, 42) to the contact areas and the connection areas; applying protective elements at the top side of the carrier along separating lines; d) applying at least one electrically insulating layer to exposed locations of the carrier, of the contact areas and of the protective elements; e) removing the protective elements (41, 42, 43), as a result of which openings (51, 52) are produced in the electrically insulating layer; singulating the carrier is into individual optoelectronic semiconductor components along the separating lines; f) arranging electrically conductive material on the electrically insulating layer and at least in places in the openings, wherein the electrically conductive material in each case electrically conductively connects a contact area to the connection area assigned thereto. a) providing a carrier having a top side, an underside situated opposite the top side of the carrier, and a plurality of connection areas arranged at the top side alongside one another in a lateral direction; b) applying a plurality of optoelectronic components arranged at a distance from one another in a lateral direction at the top side of the carrier, said components each having at least one contact area facing away from the carrier; c) applying protective elements (41, 42) to the contact areas and the connection areas; applying protective elements at the top side of the carrier along separating lines; d) applying at least one electrically insulating layer to exposed locations of the carrier, of the contact areas and of the protective elements; e) removing the protective elements (41, 42, 43), as a result of which openings (51, 52) are produced in the electrically insulating layer; singulating the carrier is into individual optoelectronic semiconductor components along the separating lines; f) arranging electrically conductive material on the electrically insulating layer and at least in places in the openings, wherein the electrically conductive material in each case electrically conductively connects a contact area to the connection area assigned thereto.
Method for operating a vehicle designed for automated driving operation, the vehicle, in a regular operating mode of the automated driving operation, being guided in an automated manner to a target position by means of a main control unit and, in an emergency operating mode of the automated driving operation, transferred in an automated manner to a safe stopping position by means of a secondary control unit, - the main control unit being used to continuously verify the functional readiness of the secondary control unit, - a decision being made, depending on the verified functional readiness, as to whether approval for automated driving operation should be granted or withdrawn, characterized in that the decision is based on decision criteria which are specified depending on a limit speed in relation to a current driving speed of the vehicle, and - the automated driving operation being activated only when approval is granted, and deactivated when approval is withdrawn. - the main control unit being used to continuously verify the functional readiness of the secondary control unit, - a decision being made, depending on the verified functional readiness, as to whether approval for automated driving operation should be granted or withdrawn, characterized in that the decision is based on decision criteria which are specified depending on a limit speed in relation to a current driving speed of the vehicle, and - the automated driving operation being activated only when approval is granted, and deactivated when approval is withdrawn.
A method, performed by a policy server, for managing traffic steering policies for steering of traffic of a user equipment, wherein the traffic steering policies are applicable by a traffic steering server to manage the traffic, wherein the method comprises: generating a policy request, wherein the policy request comprises the traffic steering policies, wherein the traffic steering policies include a first traffic steering policy and a container Attribute-Value-Pair, AVP, wherein the container AVP comprises a second traffic steering policy, both the first and second traffic steering policies being applicable to the traffic in one direction with respect to the user equipment, and sending the policy request to the traffic steering server; wherein the container AVP further comprises a service chain identifier and a service chain threshold associated with the service chain identifier, wherein the service chain identifier and the service chain threshold are related to the first and/or second traffic steering policy, and wherein the method further comprises: receiving, from the traffic steering server, a report, wherein the report comprises: the first or second traffic steering policy, the service chain identifier, and the service chain threshold. generating a policy request, wherein the policy request comprises the traffic steering policies, wherein the traffic steering policies include a first traffic steering policy and a container Attribute-Value-Pair, AVP, wherein the container AVP comprises a second traffic steering policy, both the first and second traffic steering policies being applicable to the traffic in one direction with respect to the user equipment, and sending the policy request to the traffic steering server; wherein the container AVP further comprises a service chain identifier and a service chain threshold associated with the service chain identifier, wherein the service chain identifier and the service chain threshold are related to the first and/or second traffic steering policy, and wherein the method further comprises: receiving, from the traffic steering server, a report, wherein the report comprises: the first or second traffic steering policy, the service chain identifier, and the service chain threshold. the first or second traffic steering policy, the service chain identifier, and the service chain threshold.
A hydrogen filling apparatus comprising: a measurer structured to measure a filling amount of hydrogen gas filled in a fuel tank of an automobile, using a flowmeter; an acquirer structured to acquire information of a pressure and a temperature of the fuel tank; a filling amount calculator structured to calculate the filling amount of the hydrogen gas filled in the fuel tank from the measurer based on the acquired pressure and temperature and a capacity of the fuel tank; and a determiner structured to determine presence or absence of a failure of the flowmeter using an error value (ΔM) between the measured filling amount (Mm) using the flowmeter and the calculated filling amount, characterised in that the expansion rate of the fuel tank is considered in the calculation of the filling amount of the hydrogen gas in said fuel tank. a measurer structured to measure a filling amount of hydrogen gas filled in a fuel tank of an automobile, using a flowmeter; an acquirer structured to acquire information of a pressure and a temperature of the fuel tank; a filling amount calculator structured to calculate the filling amount of the hydrogen gas filled in the fuel tank from the measurer based on the acquired pressure and temperature and a capacity of the fuel tank; and a determiner structured to determine presence or absence of a failure of the flowmeter using an error value (ΔM) between the measured filling amount (Mm) using the flowmeter and the calculated filling amount, characterised in that the expansion rate of the fuel tank is considered in the calculation of the filling amount of the hydrogen gas in said fuel tank.
A turbocharger system comprising: a housing that comprises a bore defined at least in part by a bore wall; a rolling element bearing unit that comprises an outer race; a first lobed-spring element; and a mixed-element damper assembly disposed at least in part between the outer race and the bore wall wherein the mixed-element damper assembly comprises a second lobed-spring element and a squeeze film damper element that act in series, characterized in that: a lobe of the first lobed-spring element is thicker radially than a lobe of the second lobed-spring element; the second lobed-spring element comprises a spring constant parameter (K B) that is greater than a spring constant parameter (K A) of the first lobed-spring element; and the first lobed-spring element acts in parallel to the in series elements (360, 370) of the mixed-element damper assembly. a housing that comprises a bore defined at least in part by a bore wall; a rolling element bearing unit that comprises an outer race; a first lobed-spring element; and a mixed-element damper assembly disposed at least in part between the outer race and the bore wall wherein the mixed-element damper assembly comprises a second lobed-spring element and a squeeze film damper element that act in series, characterized in that: a lobe of the first lobed-spring element is thicker radially than a lobe of the second lobed-spring element; the second lobed-spring element comprises a spring constant parameter (K B) that is greater than a spring constant parameter (K A) of the first lobed-spring element; and the first lobed-spring element acts in parallel to the in series elements (360, 370) of the mixed-element damper assembly. a lobe of the first lobed-spring element is thicker radially than a lobe of the second lobed-spring element; the second lobed-spring element comprises a spring constant parameter (K B) that is greater than a spring constant parameter (K A) of the first lobed-spring element; and the first lobed-spring element acts in parallel to the in series elements (360, 370) of the mixed-element damper assembly.
A recording medium comprising in the following order: a water-resistant, ink non-absorbing substrate; a first ink receiving layer; and a second ink receiving layer being an outermost layer, wherein the first ink receiving layer contains a fumed silica and a binder; and the second ink receiving layer contains a colloidal silica having an average primary particle diameter of 50 nm or more and 100 nm or less, and a polyvinyl alcohol having a silanol group. a water-resistant, ink non-absorbing substrate; a first ink receiving layer; and a second ink receiving layer being an outermost layer, wherein the first ink receiving layer contains a fumed silica and a binder; and the second ink receiving layer contains a colloidal silica having an average primary particle diameter of 50 nm or more and 100 nm or less, and a polyvinyl alcohol having a silanol group.
A compartment access system comprising: a frame partially defining an interior compartment; a closure operatively connected to and movable with respect to said frame and further defining said compartment; and at least one active material component (420A, 420B) operatively connected to said closure and configured for remotely triggered activation to actuate and thereby affect access to said compartment, characterized by a central rod; a hollow tube encircling said rod and having an opening therein, wherein said closure is operatively connected to said hollow tube; a movable member translatable and rotatable with respect to said rod and operatively connected with said active material component (420a, 420B); wherein said movable member is substantially surrounded by said tube and extends through said opening; wherein said opening is formed with a sloped edge to convert linear motion of said movable member into rotary motion of said hollow tube when said active material component (420A, 420B) actuates to move said movable member; and wherein said opening in said hollow tube is of a sufficient axial and circumferential size to permit manual movement of said closure without affecting tension of said active material component (420A, 420B). a frame partially defining an interior compartment; a closure operatively connected to and movable with respect to said frame and further defining said compartment; and at least one active material component (420A, 420B) operatively connected to said closure and configured for remotely triggered activation to actuate and thereby affect access to said compartment, characterized by a central rod; a hollow tube encircling said rod and having an opening therein, wherein said closure is operatively connected to said hollow tube; a movable member translatable and rotatable with respect to said rod and operatively connected with said active material component (420a, 420B); wherein said movable member is substantially surrounded by said tube and extends through said opening; wherein said opening is formed with a sloped edge to convert linear motion of said movable member into rotary motion of said hollow tube when said active material component (420A, 420B) actuates to move said movable member; and wherein said opening in said hollow tube is of a sufficient axial and circumferential size to permit manual movement of said closure without affecting tension of said active material component (420A, 420B).
Applicator for applying a cosmetic product to the eyelashes and/or eyebrows, having an applicator member with: a core made of thermoplastic material, spikes (12,16) moulded with the core, of which at least some are multiple, the multiple spikes having at least two branches extending in divergent directions away from the core, these branches connecting to one and the same base or having bases contiguous or close to each other, a support having two metal branches twisted around the core, wherein the core defines ribs which between them define grooves in which the metal branches of the support extend, the branches of one and the same multiple spike joining at the summit of the corresponding rib of the core, the multiple spikes being double spikes, the two branches of a double spike being symmetrical to each other with respect to a median plane of symmetry containing the longitudinal axis of the core, when the latter is rectilinear. a core made of thermoplastic material, spikes (12,16) moulded with the core, of which at least some are multiple, the multiple spikes having at least two branches extending in divergent directions away from the core, these branches connecting to one and the same base or having bases contiguous or close to each other, a support having two metal branches twisted around the core, wherein the core defines ribs which between them define grooves in which the metal branches of the support extend, the branches of one and the same multiple spike joining at the summit of the corresponding rib of the core, the multiple spikes being double spikes, the two branches of a double spike being symmetrical to each other with respect to a median plane of symmetry containing the longitudinal axis of the core, when the latter is rectilinear.
A surgical kit for improving cardiac function, comprising a scaffold or valve support device implantable inside a patient and dimensioned to be received within a human heart, and means (34, 158) for attaching said scaffold or valve support device to the patient, said scaffold or valve support device having an inner margin or annulus defining an orifice for seating a prosthetic or bio-prosthetic valve, wherein said means for attaching includes at least one fastener or fixation mechanism (34,158) for attaching said scaffold or valve support device to a heart in a region about a natural mitral valve, characterized in that said fastener or fixation mechanism (34,158) includes at least one tether element for securing said scaffold or valve support device to cordae tendenae of the heart, said tether element surrounding the cordae tendenae and passing through said orifice prior to a seating of a prosthetic or bio-prosthetic valve in said orifice, said tether element being pinched or clamped between said inner margin or annulus and said prosthetic valve upon seating thereof.
A wave generator for a strain wave gearing, and for making a cup-shaped or silk-hat-shaped externally toothed gear to flex into an elliptical shape and partially mesh with a rigid internally toothed gear, the wave generator comprising: a rigid plug having an elliptical outer peripheral surface in a plane oriented perpendicularly to a center axis line of the plug; and a roller bearing mounted on the outer peripheral surface of the plug, characterized in that the outer peripheral surface of the plug has: a tapered surface that is tapered toward a first direction along the center axis line of the plug on a major axis position of the outer peripheral surface; and an inverted tapered surface that is tapered toward a second direction opposite to the first direction along the center axis line on a minor axis position of the outer peripheral surface. a rigid plug having an elliptical outer peripheral surface in a plane oriented perpendicularly to a center axis line of the plug; and a roller bearing mounted on the outer peripheral surface of the plug, characterized in that the outer peripheral surface of the plug has: a tapered surface that is tapered toward a first direction along the center axis line of the plug on a major axis position of the outer peripheral surface; and an inverted tapered surface that is tapered toward a second direction opposite to the first direction along the center axis line on a minor axis position of the outer peripheral surface. a tapered surface that is tapered toward a first direction along the center axis line of the plug on a major axis position of the outer peripheral surface; and an inverted tapered surface that is tapered toward a second direction opposite to the first direction along the center axis line on a minor axis position of the outer peripheral surface.
A microparticulate non-saturated binding surface for an affinity assay, comprising: a) a microparticle support; b) covalently coupled to a surface of the support, at least one support coupler comprising a protein, wherein the protein is selected from the group consisting of bovine serum albumin, ovalbumin, a fragment of BSA, a fragment of ovalbumin, or mixtures thereof; c) a ligand coupled to the protein, wherein the ligand is present at a density of 2x10 -2 to 2x10 -1 micromoles of ligand per square metre of support, further wherein the ligand is biotin and wherein the biotin is present at a molar ratio of biotin to protein of less than or equal to 5:1; and d) a block copolymer contacting the surface of the assay support, wherein the block copolymer molecule comprises a hydrophobic head group flanked by at least two hydrophilic tail groups, and wherein the hydrophobic head group contacts the microparticle support. a) a microparticle support; b) covalently coupled to a surface of the support, at least one support coupler comprising a protein, wherein the protein is selected from the group consisting of bovine serum albumin, ovalbumin, a fragment of BSA, a fragment of ovalbumin, or mixtures thereof; c) a ligand coupled to the protein, wherein the ligand is present at a density of 2x10 -2 to 2x10 -1 micromoles of ligand per square metre of support, further wherein the ligand is biotin and wherein the biotin is present at a molar ratio of biotin to protein of less than or equal to 5:1; and d) a block copolymer contacting the surface of the assay support, wherein the block copolymer molecule comprises a hydrophobic head group flanked by at least two hydrophilic tail groups, and wherein the hydrophobic head group contacts the microparticle support.