mhurhangee/ep-ind-claims huggingface dataset:
Lighting arrangement comprising - at least one LED lighting element for directly emitting light along a central geometrical axis extending into a depth direction, said central geometrical axis being defined perpendicular on the center of a light emitting area of said LED lighting element, - and at least one collimator arranged to surround said central geometrical axis for forming an emission pattern of said emitted light, - and a secondary optic arrangement arranged on said central geometrical axis for projecting said emission pattern, - where said collimator comprises - a cutoff reflector surface with a front edge and a back edge, said back edge being located adjacent to said LED lighting element, and said front edge being spaced therefrom in said depth direction (X, A), said front edge being arranged as a shielding edge forming a light/dark cutoff in said emission pattern, - and first and second lateral reflector surfaces (26a, 26b) arranged opposite to each other adjacent to said LED lighting element, on opposite sides of said central geometrical axis, - where said front edge of said cutoff reflector surface is arranged at least substantially within a focal area of said secondary optic arrangement, characterized in that said first and second lateral reflector surfaces (26a, 26b) extend into said depth direction (X, A), measured from the LED lighting element, by at least 50% further than said cutoff reflector surface, beyond the focal area of the secondary optic arrangement. - at least one LED lighting element for directly emitting light along a central geometrical axis extending into a depth direction, said central geometrical axis being defined perpendicular on the center of a light emitting area of said LED lighting element, - and at least one collimator arranged to surround said central geometrical axis for forming an emission pattern of said emitted light, - and a secondary optic arrangement arranged on said central geometrical axis for projecting said emission pattern, - where said collimator comprises - a cutoff reflector surface with a front edge and a back edge, said back edge being located adjacent to said LED lighting element, and said front edge being spaced therefrom in said depth direction (X, A), said front edge being arranged as a shielding edge forming a light/dark cutoff in said emission pattern, - and first and second lateral reflector surfaces (26a, 26b) arranged opposite to each other adjacent to said LED lighting element, on opposite sides of said central geometrical axis, - where said front edge of said cutoff reflector surface is arranged at least substantially within a focal area of said secondary optic arrangement,
A laser module comprising: a plurality of laser elements; and an optical fiber including a core to which light beams (La, Lb, Lc) emitted from the plurality of the laser elements are entered, wherein a light incidence plane of the core includes a plurality of planes (15a, 15b, 15c) unparalleled with each other to which a light beam (La, Lb, Lc) emitted from at least one laser element is entered, at least one plane being inclined with respect to a central axis of the optical fiber, the light incidence plane (15b, 15c) being convexly formed, and when seen on a cross section along a longer direction of the optical fiber, a light beam (Lb, Lc) enters the optical fiber at an inclined plane (15b, 15c) of the core, and said light beam (Lb, Lc) is propagated from a region (Db, Dc) between a line (PLb, PLc) and the inclined plane (15b, 15c), said region being the region limited by an acute angle between the line (PLb, PLc) and the inclined plane (15b, 15c), wherein said line (PLb, PLc) is a line passing through an incident point (IPb, IPc) of the light beam (Lb, Lc) entering the inclined plane (15b, 15c) and being parallel with the central axis of the optical fiber.
A crimping press having an eccentric shaft that can rotate about an axis for shifting a ram hammer with an eccentric tappet, wherein the eccentric shaft is mounted by means of a front bearing and a rear bearing in a machine frame, the front and the rear bearing (3, 4) being spaced apart from one another, characterised in that the eccentric shaft is mounted in the machine frame on a rocker which can be swivelled about an axis extending transversely to the movement plane of the ram hammer, and that the front and the rear bearing (3, 4) can be shifted by the swivelling of the rocker in the plane of movement, the eccentric shaft and the rocker forming a rigid unit in relation to the swivel movement.
A mould-supporting system for a machine for forming hollow glassware, comprising: - a supporting structure; - a first carriage and a second carriage, which are slidably mounted, respectively, on a first bar and a second bar of said supporting structure, and, moreover, are slidably mounted on a third bar of said supporting structure, common to the two carriages, said first and second carriages carrying, respectively, a first mould-carrier arm and a second mould-carrier arm; and - means (42, 44) for controlling mutual displacement of said first and second carriages between a position where they are set close to one another and a corresponding position where they are set apart, wherein said first and second carriages comprise a first tubular portion that engages, respectively, said first and second bars via first sliding means, and a second tubular portion that engages said third bar via second sliding means, said system being characterized in that said second sliding means are configured for enabling said second tubular portion to move freely, within a limited range, in a direction transverse to said third bar, and in that said sliding means are provided with at least one blocking member designed to fix said second portion in a pre-set position in said transverse direction. - a supporting structure; - a first carriage and a second carriage, which are slidably mounted, respectively, on a first bar and a second bar of said supporting structure, and, moreover, are slidably mounted on a third bar of said supporting structure, common to the two carriages, said first and second carriages carrying, respectively, a first mould-carrier arm and a second mould-carrier arm; and - means (42, 44) for controlling mutual displacement of said first and second carriages between a position where they are set close to one another and a corresponding position where they are set apart,
Mixing material, containing oxidised cellulose mixed with silk and/or silk components, wherein the oxidised cellulose and the silk and/or the silk components have been mixed by a chemical reaction.
A tamper-evident mesh material comprising: a nonwoven mesh fabric, said mesh fabric comprising a plurality of strands, said plurality of strands comprising overlying strands and underlying strands, wherein said overlying strands and said underlying strands comprise a pigmentation, and wherein said overlying strands are bonded to said underlying strands at a plurality of crossover points; and, a contrast layer, wherein said contrast layer is visually distinct from said pigmentation of said overlying strands and said underlying strands, and wherein said contrast layer is disposed over at least a portion of each said overlying strand and each said underlying strand, and over said plurality of crossover points, wherein breakage of a bond between at least one of said overlying strands and at least one of said underlying strands at a crossover point of said plurality of crossover points exposes at least one pigmented section of said at least one underlying strand at said crossover point to indicate breakage of said bond. a nonwoven mesh fabric, said mesh fabric comprising a plurality of strands, said plurality of strands comprising overlying strands and underlying strands, wherein said overlying strands and said underlying strands comprise a pigmentation, and wherein said overlying strands are bonded to said underlying strands at a plurality of crossover points; and, a contrast layer, wherein said contrast layer is visually distinct from said pigmentation of said overlying strands and said underlying strands, and wherein said contrast layer is disposed over at least a portion of each said overlying strand and each said underlying strand, and over said plurality of crossover points, wherein breakage of a bond between at least one of said overlying strands and at least one of said underlying strands at a crossover point of said plurality of crossover points exposes at least one pigmented section of said at least one underlying strand at said crossover point to indicate breakage of said bond.
Sealing system for an openable panel comprising a rigid profile member and a seal, said profile member having a recess capable of receiving a flexible coupling portion of said seal, said recess of said profile member including side anchor shapes (4, 5) facing the coupling portion, said flexible coupling portion of the seal comprising side coupling shapes (21, 22) capable of engaging with said side anchor shapes (4, 5) of the profile member, characterized in that: said flexible coupling portion of the seal comprises an inner space located between said side anchor shapes (4, 5), said inner space receiving a material forming a locking key provided such as to be inserted longitudinally after the seal has been placed in said recess, this key ensuring locking of said side coupling shapes (21, 22) of the coupling portion of the seal on said side anchor shapes (4, 5) of the profile member. said flexible coupling portion of the seal comprises an inner space located between said side anchor shapes (4, 5), said inner space receiving a material forming a locking key provided such as to be inserted longitudinally after the seal has been placed in said recess, this key ensuring locking of said side coupling shapes (21, 22) of the coupling portion of the seal on said side anchor shapes (4, 5) of the profile member.
A marigold color prepared from a natural raw material, which has an acid value of 10 or less and an acetone-insoluble content of 5 wt % or less, wherein the acid value refers to the number of milligrams of potassium hydroxide required in order to neutralize the free fatty acids contained in 1 g of the marigold color adjusted so that the color value E 10% 1cm is 2550, and the acetone-insoluble content is calculated using the following method: from a color sample, sample of approximately 3 g is taken and weighed out (sample amount); then, 50 ml of acetone is added to this sample and dissolved, and the sample is cooled to 5°C; this sample is centrifuged for 10 minutes at 1000 x g, and the supernatant is removed; to the precipitate, 50 ml of acetone is again added, and this mixture is centrifuged; the supernatant is then removed, and the precipitate is recovered (acetone treatment, 5°C); the abovementioned acetone treatment (5°C) is repeated until there is almost no color in the precipitate; the acetone is removed by means of an evaporator from the precipitate recovered by the acetone treatment, and the weight of the obtained precipitate is measured (weight of acetone-treated precipitate); the content (wt %) of acetone-insoluble contained in 100 wt % of the color sample is determined using the following equation; Acetone − insoluble Content wt % = weight of acetone − treated precipited g / sample amount g × 100 from a color sample, sample of approximately 3 g is taken and weighed out (sample amount); then, 50 ml of acetone is added to this sample and dissolved, and the sample is cooled to 5°C; this sample is centrifuged for 10 minutes at 1000 x g, and the supernatant is removed; to the precipitate, 50 ml of acetone is again added, and this mixture is centrifuged; the supernatant is then removed, and the precipitate is recovered (acetone treatment, 5°C); the abovementioned acetone treatment (5°C) is repeated until there is almost no color in the precipitate; the acetone is removed by means of an evaporator from the precipitate recovered by the acetone treatment, and the weight of the obtained precipitate is measured (weight of acetone-treated precipitate); the content (wt %) of acetone-insoluble contained in 100 wt % of the color sample is determined using the following equation; Acetone − insoluble Content wt % = weight of acetone − treated precipited g / sample amount g × 100
Device for closing an opening of a structure, comprising a fixed panel closing a first part of said opening and a movable panel, capable of closing an opening corresponding to a second part of said opening, said movable panel being guided in two rails (14, 15) between: - a closing position of said opening, in a first plane defined by said fixed panel, referred to as a closing plane; and - a sliding position, in a second plane, referred to as a sliding plane, substantially parallel to said closing plane, each of said rails (14, 15) carries at least one movable shuttle sliding in said rail (14, 15), along a sliding axis, and carrying at least one first fixed pin (22, 23), said first fixed pin (22, 23) cooperating with a control groove (32A, 32B) for the passage from said closing position to said sliding position, and vice versa, said groove being carried by a support (31A, 31B) secured to a frame of said movable panel and having at least one first portion extending transversely, allowing a passage from said closing position to said sliding position, and vice versa, and a second portion locking extending substantially parallel to said sliding axis, the device comprising at least one actuating element mounted on said movable panel and movable with respect to the frame of this movable panel in a direction parallel to said sliding axis, characterised in that said actuating element has a slot extending perpendicularly to said sliding axis and overlapping an upper part of one of said first pins (22, 23), such that the actuating element acts directly on one of said first pins (22, 23), so as to move it into the control groove (32A, 32B) with which it cooperates. - a closing position of said opening, in a first plane defined by said fixed panel, referred to as a closing plane; and - a sliding position, in a second plane, referred to as a sliding plane, substantially parallel to said closing plane,
A chromium-free, organic resin coated, surface treated steel sheet where nickel plating is applied to at least one-side surface of the surfaces of a steel sheet by coating, and wherein an organic resin layer is formed on at least one surface of the surface treated steel sheet, wherein the nickel plating has a fine particle shape formed by fine particles which have a particle density of 2 to 500 pieces/μm 2 and an average particle size of 0.05 to 0.7μm, the average particle size being measured as a diameter of a circle which corresponds to an average occupation area per particle calculated by a particle density of an observed 1 μm × 1 μm area of the nickel plating surface, the particle density being measured by counting a number of particles which are present in a range of 1 μm x 1 μm area of the nickel plating surface when the average particle size of the particles is approximately 0.5 μm or less, or a number of particles which are present in a range of 10 μm x 10 μm area of the nickel plating surface and then converting into the number of particles per 1 μm X 1 μm area when the average particle size of the particles is approximately 0.5 μm or more, wherein, in counting, a particle which is completely included in a frame of 1 μm × 1 μm is counted as one piece and a particle which is only partially included in the frame is counted as 0.5 piece, and wherein the particle density is obtained such that the counting is performed at 5 portions on the surface of the nickel plating and the calculated measurement results of three portions excluding the largest value and the smallest value are averaged.
A combination of a downhill binding or downhill ski binding, in particular a front jaw of the downhill binding, and a ski boot, wherein (a) the ski boot comprises a rigid ski boot shell and a sole of the ski boot comprising a front end of the sole, a rear end of the sole, an upper side of the sole and a lower side of the sole, and (b) the downhill binding comprises a front jaw and a rear jaw, (c) wherein the downhill binding comprises a bearing structure for the sole of the ski boot, (d) wherein the bearing structure has an apex which has a distance, in the longitudinal direction, from the front end of the sole held in the downhill binding of at least 28 mm and at most 34 mm, and wherein the apex exhibits a perpendicular distance from the upper side of the sole of the ski boot held in the downhill binding of 19 mm ± 2 mm in at least one point, (e) wherein a front attaching region of the ski boot comprises a bearing region in the lower side of the sole, via which the ski boot lies on the apex of the bearing structure, and (f) wherein the bearing region comprises a two-dimensional recess, and the ski boot held in the downhill ski binding lies on the apex of the bearing structure in the region of the two-dimensional recess. (a) the ski boot comprises a rigid ski boot shell and a sole of the ski boot comprising a front end of the sole, a rear end of the sole, an upper side of the sole and a lower side of the sole, and (b) the downhill binding comprises a front jaw and a rear jaw, (c) wherein the downhill binding comprises a bearing structure for the sole of the ski boot, (d) wherein the bearing structure has an apex which has a distance, in the longitudinal direction, from the front end of the sole held in the downhill binding of at least 28 mm and at most 34 mm, and wherein the apex exhibits a perpendicular distance from the upper side of the sole of the ski boot held in the downhill binding of 19 mm ± 2 mm in at least one point, (e) wherein a front attaching region of the ski boot comprises a bearing region in the lower side of the sole, via which the ski boot lies on the apex of the bearing structure, and (f) wherein the bearing region comprises a two-dimensional recess, and the ski boot held in the downhill ski binding lies on the apex of the bearing structure in the region of the two-dimensional recess.
A copolymer composition obtained by copolymerizing an N-phenylmaleimide compound and one or more other monomers or resins copolymerizable with the N-phenylmaleimide compound, wherein the N-phenylmaleimide compound comprises 0.005 to 0.06% by weight of N-(2,5-dioxo-1-phenyl-3-pyrrolidinyl)-N-phenylmaleamic acid (PPMA) and 0.01 to 0.3% by weight of N-phenylfumaramic acid.
A glove interface object (400, 500, 1000), comprising: at least one flex sensor (404, 410, 416) configured to generate flex sensor data; a communications module configured to transmit the flex sensor data to a computing device; the glove interface object comprising at least one contact sensor (602, 604, 608) configured to generate contact sensor data identifying a contact between a first portion of the glove interface object and a second portion of the glove interface object; the at least one flex sensor is configured to generate the flex sensor data identifying an amount of flex of at least one finger portion of the glove interface object, characterised in that: the at least one flex sensor is disposed along a lateral side portion of the at least one finger portion of the glove interface object from a base of the at least one finger portion to a distal portion of the at least one finger portion; and the communications module is configured to transmit the flex sensor data and the contact sensor data to the computing device for processing to determine a finger position pose of the glove interface object, the finger position pose being applied for rendering a virtual hand in a view of a virtual environment on a head-mounted display (102, 1042), the virtual hand being rendered based on the identified finger position pose. at least one flex sensor (404, 410, 416) configured to generate flex sensor data; a communications module configured to transmit the flex sensor data to a computing device; the glove interface object comprising at least one contact sensor (602, 604, 608) configured to generate contact sensor data identifying a contact between a first portion of the glove interface object and a second portion of the glove interface object; the at least one flex sensor is configured to generate the flex sensor data identifying an amount of flex of at least one finger portion of the glove interface object, characterised in that: the at least one flex sensor is disposed along a lateral side portion of the at least one finger portion of the glove interface object from a base of the at least one finger portion to a distal portion of the at least one finger portion; and the communications module is configured to transmit the flex sensor data and the contact sensor data to the computing device for processing to determine a finger position pose of the glove interface object, the finger position pose being applied for rendering a virtual hand in a view of a virtual environment on a head-mounted display (102, 1042), the virtual hand being rendered based on the identified finger position pose.
A lamp arrangement (100, 200), comprising: a bearing apparatus (101, 201) comprising a holder (104, 204) for fastening at least one flat lamp, the holder (104, 204) having a bearing surface (105, 205) for the at least one flat lamp, characterized in that the holder (104, 204) has at least two holding elements, which are spaced from one another and moulded laterally on the bearing surface or arranged as an attachment part and which form a mount, wherein one polymer bearing made from an elastic polymer material is accommodated in each mount in each case, wherein each polymer bearing has a through opening arranged normal to the plane of the bearing surface (105, 205), wherein the bearing apparatus (101, 201) comprises fastening elements, which are guided through the through openings of the polymer bearings in each case for fastening the bearing apparatus (101, 201) on a substrate, and a flat lamp fastened on the bearing surface (105, 205) of the holder (104, 204) of the bearing apparatus, wherein the flat lamp is fastened on the bearing surface (105, 205) by means of adhesive bonding and/or by means of a screen. a bearing apparatus (101, 201) comprising a holder (104, 204) for fastening at least one flat lamp, the holder (104, 204) having a bearing surface (105, 205) for the at least one flat lamp, characterized in that the holder (104, 204) has at least two holding elements, which are spaced from one another and moulded laterally on the bearing surface or arranged as an attachment part and which form a mount, wherein one polymer bearing made from an elastic polymer material is accommodated in each mount in each case, wherein each polymer bearing has a through opening arranged normal to the plane of the bearing surface (105, 205), wherein the bearing apparatus (101, 201) comprises fastening elements, which are guided through the through openings of the polymer bearings in each case for fastening the bearing apparatus (101, 201) on a substrate, and a flat lamp fastened on the bearing surface (105, 205) of the holder (104, 204) of the bearing apparatus, wherein the flat lamp is fastened on the bearing surface (105, 205) by means of adhesive bonding and/or by means of a screen.
A compound for a tyre sealant layer comprising at least one polymer base consisting of an essentially saturated polymer and a filler, wherein said polymer base consisting of an essentially saturated polymer is a halobutyl and/or butyl rubber; said compound being characterized in that said filler comprises kraft lignin; said essentially saturated polymer being a polymer produced with less than 15% in moles of diene monomers.
A method for determining preferred alignments of a treatment beam generator, which is suitable for irradiating an object, relative to a body, wherein the method is a data processing method which is performed by a computer, characterised in that the visibility of the object in at least one image is taken into account when determining the preferred alignments, wherein the image is obtained by means of at least one imaging device (4, 5), the position of which relative to the treatment beam generator is known and invariable.