mhurhangee/ep-ind-claims huggingface dataset:
A coating composition characterised in, that said coating composition is a UV-curing coating composition comprising (a) 40-70% by weight of at least one urethane (meth)acrylate being a product of a reaction between at least one polycaprolactone polyol and at least one adduct, said adduct being a product of a reaction between at least one polyisocyanate and at least one hydroxyalkyl (meth)acrylate, whereby said polycaprolactone polyol is a product of a reaction between at least one polyalkoxylated polyol and at least one caprolactone monomer, (b) 20-50% by weight of at least one reactive diluent having at least one olefinic carbon-carbon double bond, and (c) 0.5-10% by weight of at least one photo initiator.
Pendulum suspension device for suspending a support body (2; 2a; 2b) with a support surface (3; 3a; 3b), comprising a) a longitudinal axis, b) a first securing device (12; 12c; 12d) for securing onto a first holding device (5; 5a; 5b), c) a second securing device (15; 15c; 15d) for securing onto a second holding device (6; 6a; 6b), d) at least one connecting element, which i. can be subjected to tensile stress, and ii. connects together the first securing device (12; 12c; 12d) and the second securing device (15; 15c; 15d), e) at least one damping element for damping pendulum movements transversely to the longitudinal axis, and f) a stabiliser element for impeding a bending or buckling movement transversely to the longitudinal axis, characterised in that g) the pendulum suspension device also comprises at least one first receiving element receiving the stabiliser element for arranging adjacent to the first holding device and h) the pendulum suspension device comprises at least one second receiving element receiving the stabiliser element for arranging adjacent to the second holding device (6; 6a; 6b), i) the stabiliser element is arranged in radial direction relative to the longitudinal axis between the at least one connecting element and the at least one damping element. a) a longitudinal axis, b) a first securing device (12; 12c; 12d) for securing onto a first holding device (5; 5a; 5b), c) a second securing device (15; 15c; 15d) for securing onto a second holding device (6; 6a; 6b), d) at least one connecting element, which i. can be subjected to tensile stress, and ii. connects together the first securing device (12; 12c; 12d) and the second securing device (15; 15c; 15d), i. can be subjected to tensile stress, and ii. connects together the first securing device (12; 12c; 12d) and the second securing device (15; 15c; 15d), e) at least one damping element for damping pendulum movements transversely to the longitudinal axis, and f) a stabiliser element for impeding a bending or buckling movement transversely to the longitudinal axis, characterised in that g) the pendulum suspension device also comprises at least one first receiving element receiving the stabiliser element for arranging adjacent to the first holding device and h) the pendulum suspension device comprises at least one second receiving element receiving the stabiliser element for arranging adjacent to the second holding device (6; 6a; 6b), i) the stabiliser element is arranged in radial direction relative to the longitudinal axis between the at least one connecting element and the at least one damping element.
A wave energy harnessing mechanism comprising a grid of piston members; each said piston member including a hollow chamber along with a driving shaft, a movable magnet; a coil located inside a coil compartment and said driving shaft adapted to move said magnet back and forth so as to induce an electric current through said coil; and a plurality of cables interconnecting said coils of said piston members that are adapted and used to transfer said electric current generated within said coil compartments to a storage accumulator located a distance therefrom wherein each piston member is connected at both of its ends to at least one other piston member so as to form the grid; and said movable magnet moves back and forth in the hollow chamber surrounded by said coil compartment; a pair of biasing members are placed on either side of said movable magnet and are adapted to push said movable magnet back to its original position.
A method of filling a sanitizing device, comprising the steps of: - preparing a container body adapted to contain a sanitizing product in gel form, said container body being affected by slits adapted to allow the gradual release of said sanitizing product in gel form; - depositing a water-soluble material inside said container body, so as to cover said slits; - pouring said sanitizing product in gel form into said container body, characterized in that said step of depositing said water-soluble material inside said container body comprises treating said container body with a concentrated solution of said water-soluble material and subsequently drying it. - preparing a container body adapted to contain a sanitizing product in gel form, said container body being affected by slits adapted to allow the gradual release of said sanitizing product in gel form; - depositing a water-soluble material inside said container body, so as to cover said slits; - pouring said sanitizing product in gel form into said container body, characterized in that said step of depositing said water-soluble material inside said container body comprises treating said container body with a concentrated solution of said water-soluble material and subsequently drying it.
Illumination apparatus, in particular for a motor vehicle, comprising a plurality of multicolour LED units each with settable brightness and settable colour point, wherein each multicolour LED unit is an individual semiconductor device having a plurality of single-colour LEDs (301, 302, 303, 304) of different colours and a microcontroller, characterized in that the single-colour LEDs (301, 302, 303, 304) and the microcontroller of each multicolour LED unit are enclosed by a corresponding package of the semiconductor device, wherein the microcontroller is adapted to ascertain an instantaneous temperature value of a respective multicolour LED unit without a temperature sensor based on at least a portion of the operating voltages and/or operating currents of the single-colour LEDs (301, 302, 303, 304) of the respective multicolour LED unit and to control the respective multicolour LED unit in dependence on the instantaneous temperature value.
A heat chamfering apparatus comprising: a support unit configured to support a glass panel; and a heat chamfering unit configured to heat-chamfer an edge of the glass panel by applying thermal shock thereto, wherein the support unit comprises a contact support portion configured to support the glass panel while in contact with the glass panel and a base portion configured to support the contact support portion, the contact support portion being formed from a first material, and the base portion being formed from a second material, further characterised in that the first material has lower thermal conductivity, a lower coefficient of thermal expansion, and lower hardness than the second material. a support unit configured to support a glass panel; and a heat chamfering unit configured to heat-chamfer an edge of the glass panel by applying thermal shock thereto, wherein the support unit comprises a contact support portion configured to support the glass panel while in contact with the glass panel and a base portion configured to support the contact support portion, the contact support portion being formed from a first material, and the base portion being formed from a second material, further characterised in that the first material has lower thermal conductivity, a lower coefficient of thermal expansion, and lower hardness than the second material.
A computer-implemented method for generating a radiation therapy treatment plan for a volume of a patient, the method comprising: receiving an image of the volume; receiving at least one dose-distribution-derived function, the or each dose-distribution-derived function configured to provide a value as an output based on, as an input, at least part of a dose distribution defined relative to said image; receiving a first probability distribution and at least a second, different, probability distribution, the first and at least second probability distributions representing the achievability or desirability of a range of the values output from said at least one dose-distribution-derived functions; defining a multi-criteria optimization problem comprising at least two objective functions comprising: a first objective function based on the at least one dose-distribution-derived function, the first probability distribution and a loss function; and a second objective function based on the at least one dose-distribution-derived function, the second probability distribution and the loss function; performing a multi-criteria optimization process based on said at least two objective functions to generate at least two output treatment plans. receiving an image of the volume; receiving at least one dose-distribution-derived function, the or each dose-distribution-derived function configured to provide a value as an output based on, as an input, at least part of a dose distribution defined relative to said image; receiving a first probability distribution and at least a second, different, probability distribution, the first and at least second probability distributions representing the achievability or desirability of a range of the values output from said at least one dose-distribution-derived functions; defining a multi-criteria optimization problem comprising at least two objective functions comprising: a first objective function based on the at least one dose-distribution-derived function, the first probability distribution and a loss function; and a second objective function based on the at least one dose-distribution-derived function, the second probability distribution and the loss function; a first objective function based on the at least one dose-distribution-derived function, the first probability distribution and a loss function; and a second objective function based on the at least one dose-distribution-derived function, the second probability distribution and the loss function; performing a multi-criteria optimization process based on said at least two objective functions to generate at least two output treatment plans.
Method for operating an onboard power supply of a motor vehicle, which onboard power supply has at least two electrical networks (3, 4) with different network voltages, wherein a high-voltage network for supplying with power at least one low-voltage network with a network voltage which is low in comparison to the high-voltage network submits a specified power quantity to the at least one low-voltage network, wherein to each network is connected at least one network component (6 - 11), in particular an electrical load, and the high-voltage network has at least one high-voltage battery attached thereto, wherein in the case of a deficiency in power occurring during the charging procedure of the high-voltage battery in the high-voltage network the power of at least one of the network components (9 - 11) connected in the at least one low-voltage network and the power quantity of at least one of the at least one network components (6 - 8), submitted by the high-voltage network to the at least one low-voltage network, is reduced, characterised in that to each network (3, 4) is assigned a control device (13, 14) for controlling the network components (6 - 11) and for determining the actual power consumption of the network (3, 4), wherein the control device of the high-voltage network in the case of a deficiency in power occurring during the charging procedure of the high-voltage battery in the high-voltage network submits an item of information regarding the deficiency in power in the high-voltage network to the control device of the at least one low-voltage network, wherein the control device of the at least one low-voltage network taking additionally into consideration at least one marginal condition concerning the power consumption of at least one network component (9 - 11) of the low-voltage network reduces the power of at least one network component (9 - 11) of the low-voltage network.
A solder material comprising: a) a solder alloy, wherein the solder alloy is selected from the group consisting of high lead alloys, SnAg alloys, SnAgCu alloys, indium and indium alloys, and SnPb alloys, and b) a thermal conductivity modifying component; wherein the thermal conductivity modifying component is in the form of a wire; and wherein the thermal conductivity modifying component is selected from the group consisting of tin over copper, tin over nickel over aluminum, palladium, and platinum, wherein the solder material has a bulk thermal conductivity of between 75 and 150 W/m-K; and wherein the solder material is in the form of a solder preform. a) a solder alloy, wherein the solder alloy is selected from the group consisting of high lead alloys, SnAg alloys, SnAgCu alloys, indium and indium alloys, and SnPb alloys, and b) a thermal conductivity modifying component; wherein the thermal conductivity modifying component is in the form of a wire; and wherein the thermal conductivity modifying component is selected from the group consisting of tin over copper, tin over nickel over aluminum, palladium, and platinum,
Method of protecting a plant against a fungal pathogen selected from the group consisting of Fusarium graminearum, Fusarium culmorum, Fusarium tricinctum, Fusarium poae, Fusarium avenaceum, Fusarium langsethiae, Fusarium sporotrichioides, Microdochium majus, Microdochium nivale, in the Tilletia group, for example Tilletia caries and, the group of pathogens of the genus Pythium, comprising a step of coating the seeds with a composition comprising crushed potato sprouts.
Bearing at least partially made of an elastic material for a component of a vehicle, wherein the component can be positioned by means of the bearing so that it is movable, in case of a specified application of force, in the direction of the force applied, and the bearing has a seat in which, when the component is in the mounting position, a retaining element connected therewith can be received and the wall of the seat is provided with a predetermined breaking point in the area that is impacted by the movement of the component that takes place if force is applied and the seat is provided on the side with the predetermined breaking point with an extension that is configured as an oblong hole extending in direction of the force applied, wherein opposed areas of the limiting walls of the recess have a distance from each other that is smaller than the corresponding dimension of the retaining element that can be received by the seat and areas of both limiting walls are elastically deformable, characterized in that opposed wall areas (36, 38) of the recess are formed at least partially by lamellar projections (42, 44) and the lamellar projections of both wall areas are oriented opposed and are dimensioned in such a manner that the distance of the free ends of two cooperating and opposed lamellae of both wall areas is smaller than the corresponding dimension of the retaining element of the component and that the lamellae (42, 44) of both wall areas (36, 38) are placed offset to each other in the longitudinal direction of the oblong hole.
A miRNA molecule or an equivalent or a mimic or an isomiR thereof wherein a source of said miRNA molecule or equivalent thereof comprises at least 80 nucleotides and comprises a motif having at least 98% identity with SEQ ID NO:1 or a source thereof, or a composition comprising said miRNA molecule, equivalent or mimic or isomiR thereof or source thereof for use as a medicament for treating, reverting, curing and/or delaying a cancer associated with EMT by inducing a MET process, wherein said miRNA molecule is a miRNA-518b, miRNA-520f and/or miRNA-524.
A primary mirror mount assembly comprising: a body including a mirror surface and a mount surface, the mount surface having at least one feature formed therein; a hub configured to be secured to the body, the hub including at least one corresponding mating feature configured to receive the at least one feature of the mount surface of the body therein, wherein the at least one feature and the at least one corresponding mating feature are welded together, wherein the hub includes an outer flange portion and an annular, inner hub portion, and wherein the at least one feature of the mount surface of the body includes an annular recess configured to receive the inner hub portion of the hub to seat the hub. a body including a mirror surface and a mount surface, the mount surface having at least one feature formed therein; a hub configured to be secured to the body, the hub including at least one corresponding mating feature configured to receive the at least one feature of the mount surface of the body therein, wherein the at least one feature and the at least one corresponding mating feature are welded together, wherein the hub includes an outer flange portion and an annular, inner hub portion, and wherein the at least one feature of the mount surface of the body includes an annular recess configured to receive the inner hub portion of the hub to seat the hub.
A composite substrate comprising a supporting substrate composed of a translucent ceramic and a piezoelectric substrate which are bonded to each other through an adhesive layer, characterized in that the translucent ceramic has an average crystal grain size of 10 to 50 μm, and the refractive index of the adhesive layer is a value between the refractive index of the supporting substrate and the refractive index of the piezoelectric substrate.
D-ring assembly for a belt in a vehicle, the D-ring assembly comprising: a patch bracket in which a portion of the patch bracket supporting a D-ring is inclined forward with respect to a portion of the patch bracket fixable to a pillar of the vehicle; and the D-ring installed at the patch bracket to be rotatable in a left or right direction, characterized in that the patch bracket comprises: a pillar fixing part fixable to the pillar of the vehicle; a horizontal bending part, in which one side the horizontal bending part provided at a lower front end of the pillar fixing part has a width narrower than a width of an opposite side of the pillar fixing part to have a trapezoidal shape; and a D-ring support part vertically bent at a front of the horizontal bending part. a patch bracket in which a portion of the patch bracket supporting a D-ring is inclined forward with respect to a portion of the patch bracket fixable to a pillar of the vehicle; and the D-ring installed at the patch bracket to be rotatable in a left or right direction, characterized in that the patch bracket comprises: a pillar fixing part fixable to the pillar of the vehicle; a horizontal bending part, in which one side the horizontal bending part provided at a lower front end of the pillar fixing part has a width narrower than a width of an opposite side of the pillar fixing part to have a trapezoidal shape; and a D-ring support part vertically bent at a front of the horizontal bending part. a pillar fixing part fixable to the pillar of the vehicle; a horizontal bending part, in which one side the horizontal bending part provided at a lower front end of the pillar fixing part has a width narrower than a width of an opposite side of the pillar fixing part to have a trapezoidal shape; and a D-ring support part vertically bent at a front of the horizontal bending part.
A fastening system for cables, in particular in wind turbines, comprising a main body, which can be fixed to a supporting structure, and comprising cable holders which have an opening for the insertion of cables, which holders can be closed by a cover device, the cable holders being provided in the form of components that can be attached to the main body, and being arranged on the main body in an arrangement extending over at least part of a ring with an opening lying on the outside, and the cover device having retaining devices by means of which the opening of the respective cable holder can be blocked in order to affix inserted cables, characterised in that the retaining devices each have a cover part which is hinged on the cable holder and that has a moveably guided clamping part which exerts a retaining force in the direction of the cables to be held by means of a spring arrangement, that the cover part forms a supporting surface for a band clamp on its upper side, and/or that the retaining devices are held in a position, defined by a snap-in or other immobilising connection, that closes or blocks the cable holders.
A concrete structure where the concrete has a strength less than or equal to the strength of concrete of the C50/60 strength classes as defined in EN206, said concrete structure being reinforced with steel fibres (600, 700) with a dosage of said steel fibres of less than 1 vol%, said steel fibres (600, 700) having a diameter D ranging from 0.1 mm to 1.20 mm and having a length to diameter ratio L/D ranging from 40 to 100, said steel fibre (600,700) comprising a straight middle portion (602, 702) and an anchorage end (606, 608, 706, 708) at one or both ends of said middle portion (602, 702), said middle portion (602, 702) having a main axis (604, 704), said middle portion (602, 702) having a length higher than 25 mm, said anchorage end (606, 608, 706, 708) is deflecting from said main axis (604, 704) of said middle portion (602, 702) in a deflection section (610, 710), said anchorage end (606, 608, 706, 708) having n bent sections (620, 622, 712, 714), with n being equal or larger than 2, whereby consecutive bent sections (620, 622) are connected to each other means of a straight section, said straight section having a length ranging between 0.1 mm and 5 mm, said steel fibres (600, 700) when being in a stable position on a horizontal surface defining a vertical projection on said horizontal surface, the vertical projections of all of said n bent sections (620, 622, 712, 714) of said anchorage end (606, 608, 706, 708) are located at one side of the vertical projection of said main axis (604, 704) and in said vertical projection on said horizontal surface the vertical projection of none of said n bent sections (620, 622, 712, 714) is located on the vertical projection of said main axis (604, 704) or on the vertical projection of a line extending from said main axis (604, 704), said middle portion (602, 702) has an elongation at maximum load A g+e of at least 4%..