mhurhangee/ep-ind-claims huggingface dataset:
A process for manufacturing a solid composite separator, said process comprising the following steps: (i-1) providing a liquid composition [composition] comprising, preferably consisting of: - at least one fluoropolymer [polymer] obtainable by polymerization of at least one fluorinated monomer [monomer] and at least one (meth)acrylic monomer of formula: wherein each of R 1, R 2 and R 3, equal to or different from each other, is independently a hydrogen atom or a C 1 -C 3 hydrocarbon group, and R X is a hydrogen atom or a C 1 -C 5 hydrocarbon moiety comprising at least one hydroxyl group, - at least one inorganic filler [filler], and - a liquid medium [medium]; (ii-1) providing a porous substrate layer made from one or more sets of polymer fibres [substrate]; (iii-1) applying the composition onto the substrate thereby providing a wet substrate [substrate (P-W)]; (iv-1) drying and then, optionally, curing the substrate (P-W) provided in step (iii-1) thereby providing a solid composite separator; and (v-1) optionally, submitting to compression the solid composite separator provided in step (iv-1). (i-1) providing a liquid composition [composition] comprising, preferably consisting of: - at least one fluoropolymer [polymer] obtainable by polymerization of at least one fluorinated monomer [monomer] and at least one (meth)acrylic monomer of formula: wherein each of R 1, R 2 and R 3, equal to or different from each other, is independently a hydrogen atom or a C 1 -C 3 hydrocarbon group, and R X is a hydrogen atom or a C 1 -C 5 hydrocarbon moiety comprising at least one hydroxyl group, - at least one inorganic filler [filler], and - a liquid medium [medium]; - at least one fluoropolymer [polymer] obtainable by polymerization of at least one fluorinated monomer [monomer] and at least one (meth)acrylic monomer of formula: wherein each of R 1, R 2 and R 3, equal to or different from each other, is independently a hydrogen atom or a C 1 -C 3 hydrocarbon group, and R X is a hydrogen atom or a C 1 -C 5 hydrocarbon moiety comprising at least one hydroxyl group, - at least one inorganic filler [filler], and - a liquid medium [medium]; (ii-1) providing a porous substrate layer made from one or more sets of polymer fibres [substrate]; (iii-1) applying the composition onto the substrate thereby providing a wet substrate [substrate (P-W)]; (iv-1) drying and then, optionally, curing the substrate (P-W) provided in step (iii-1) thereby providing a solid composite separator; and (v-1) optionally, submitting to compression the solid composite separator provided in step (iv-1).
Device for coaxially connecting two pipelines (1,2) with different inner diameters, - with a screw flange for the one pipeline, which screw flange has an outer thread, and - with a pressure flange for the other pipeline, which pressure flange has a pressure surface for a nut, and - with a sealing ring which is arranged in recesses (7, 8) between the opposite end faces of the screw flange on one side and of the pressure flange on the other side, and also with a nut which has an inner thread and which is pushed onto the pressure flange and is screwable onto the screw flange, wherein - the inner diameter of the sealing ring is greater than or at least equal to the inner diameter of the pipelines (1,2), wherein the difference of the inner diameters of the pipelines (1,2) is compensated respectively by a cone region of the pressure flange and a cone region of the screw flange, and - the sealing ring has limbs running around its whole outer circumference parallel to its upper and lower flat side, which limbs point radially outwards and are spread in the form of a V-profile, characterised in that the pressure surface of the pressure flange has for the nut an obtuse angle, seen in the axial screwing-on direction of the nut, and/or is of crowned form. - with a screw flange for the one pipeline, which screw flange has an outer thread, and - with a pressure flange for the other pipeline, which pressure flange has a pressure surface for a nut, and - with a sealing ring which is arranged in recesses (7, 8) between the opposite end faces of the screw flange on one side and of the pressure flange on the other side, and also with a nut which has an inner thread and which is pushed onto the pressure flange and is screwable onto the screw flange, wherein - the inner diameter of the sealing ring is greater than or at least equal to the inner diameter of the pipelines (1,2), wherein the difference of the inner diameters of the pipelines (1,2) is compensated respectively by a cone region of the pressure flange and a cone region of the screw flange, and - the sealing ring has limbs running around its whole outer circumference parallel to its upper and lower flat side, which limbs point radially outwards and are spread in the form of a V-profile,
A wall mounted plastic distribution box for electrical installations, which can be inserted from the front into a passage of a wall, the wall mounted distribution box including a collar for limiting the insertion depth for flush insertion into the passage and circumferentially retaining surfaces or edges for co-operating with the inner surface of the passage in the wall, and a bottom closing off the wall mounted distribution box, the wall mounted distribution box being configured, when viewed in plan, as an oval double-box, the double-box being formed by a box body that at least in the area of the collar and the retaining surfaces or edges is rounded at its longitudinal ends in a semi-circular shape, the two semi-circular sections being connected by straight connection sections, and the collar being radially protruding in the area of the semi-circular sections only, characterized by that the retaining surfaces or edges are formed by a radially protruding area section or edge section surrounding the semi-circular section and the straight connection sections without interruptions in the form of sealing edges.
A method for manufacturing a plurality of nanostructures on a substrate, the method comprising the steps of: depositing a bottom layer on an upper surface of the substrate, said bottom layer comprising grains having a first average grain size; depositing a catalyst layer on an upper surface of the bottom layer, said catalyst layer comprising grains having a second average grain size larger than said first average grain size, thereby forming a stack of layers comprising said bottom layer and said catalyst layer; heating the stack of layers to a temperature where nanostructures can form; and providing a gas comprising a reactant such that the reactant comes into contact with the catalyst layer. depositing a bottom layer on an upper surface of the substrate, said bottom layer comprising grains having a first average grain size; depositing a catalyst layer on an upper surface of the bottom layer, said catalyst layer comprising grains having a second average grain size larger than said first average grain size, thereby forming a stack of layers comprising said bottom layer and said catalyst layer; heating the stack of layers to a temperature where nanostructures can form; and providing a gas comprising a reactant such that the reactant comes into contact with the catalyst layer.
Electrical conductor, peripherally extending around a magnetizable core or a plurality of magnetizable cores, wherein the electrical conductor, along the peripheral extent or along a plurality or all of the peripheral extents, comprises at least one region i) composed of cast material, or material producible by casting, said at least one region having exactly two contact regions which constitute the transition to a region ii) composed of conductor material (U1, U2, U3, U4, U5, U6, U7, i1, i2) which has been modified with respect to the cast material, or material producible by casting, of the region i), wherein a casting mould or a plurality of casting moulds is or are arranged on the electrical conductor in the region of the region i) or regions i) in such a way that the region (s) i) and all of the contact regions lie in the interior of the casting mould. wherein the electrical conductor, along the peripheral extent or along a plurality or all of the peripheral extents, comprises at least one region i) composed of cast material, or material producible by casting, said at least one region having exactly two contact regions which constitute the transition to a region ii) composed of conductor material (U1, U2, U3, U4, U5, U6, U7, i1, i2) which has been modified with respect to the cast material, or material producible by casting, of the region i), wherein a casting mould or a plurality of casting moulds is or are arranged on the electrical conductor in the region of the region i) or regions i) in such a way that the region (s) i) and all of the contact regions lie in the interior of the casting mould.
A method for determining a characteristic curve of a device for actuating an actuating element of a vehicle, preferably a pedal force simulator, via which a haptic response is conveyed via a predefined force-path behaviour on the actuating element, characterized in that a lower and an upper end stop of the actuating element is determined by a learning routine, wherein the lower and/or the upper end stop of the actuating element is actuated multiple times and the learning routine independently checks whether the measured lower and/or upper end stop lies within a predefined tolerance range.
An imaging probe, comprising a housing, having a proximal region configured to be coupled to an optical cable; a cannula, extending from a distal region of the housing; an optical guide, positioned partially in the housing and partially in the cannula, configured to receive an imaging light from the optical cable in the proximal region of the housing, and to guide the imaging light towards a distal end of the cannula; an optical focusing element, configured to receive the imaging light from the optical guide, and to emit a focused imaging light; characterised by: an elastomeric optical element formed from transparent and deformable materials, configured to receive the focused imaging light from the optical focusing element, and to be deformable to redirect the focused imaging light along a scanning pattern, such as a scanning line, and an actuator system, configured to deform the elastomeric optical element to redirect the focused imaging light. to receive an imaging light from the optical cable in the proximal region of the housing, and to guide the imaging light towards a distal end of the cannula; an optical focusing element, configured to receive the imaging light from the optical guide, and to emit a focused imaging light; characterised by: an elastomeric optical element formed from transparent and deformable materials, configured to receive the focused imaging light from the optical focusing element, and to be deformable to redirect the focused imaging light along a scanning pattern, such as a scanning line, and an actuator system, configured to deform the elastomeric optical element to redirect the focused imaging light. an elastomeric optical element formed from transparent and deformable materials, configured to receive the focused imaging light from the optical focusing element, and to be deformable to redirect the focused imaging light along a scanning pattern, such as a scanning line, and to receive the focused imaging light from the optical focusing element, and to be deformable to redirect the focused imaging light along a scanning pattern, such as a scanning line, and an actuator system, configured to deform the elastomeric optical element to redirect the focused imaging light.
A method for manufacturing a propeller reduction gear including: - a casing including at least two front bearing seatings and two rear bearing seatings; - an input gear; - at least two intermediate gears (2, 2a, 2b), each intermediate gear (2, 2a, 2b) including a first stage meshing with the input gear and a second stage, each intermediate gear (2, 2a, 2b) being attached to the casing via at least one front bearing and one rear bearing, each front bearing being supported by one of the front bearing seatings, each rear bearing being supported by one of the rear bearing seatings; - an output gear wheel meshing with the second stage of each of the intermediate gears; wherein, the method comprises the following steps of: - (a) measuring manufacturing defects of the casing (ΔYav, ΔZav, ΔYar, ΔZar); - (b) calculating a first angular play (δmanufacturing) induced at each intermediate gear (2a, 2b) from the measured manufacturing defects (ΔYav, ΔZav, ΔYar, ΔZar); - (c) estimating a second angular play (δdeformation) induced at each intermediate gear (2a, 2b) by deformations of the casing upon transmitting a threshold torque by the reduction gear; - (d) calculating a total angular play (δtotal) from the first angular play and the second angular play; - (e) selecting two intermediate gears having a phasing difference (-δtotal) compensating for this total angular play. - a casing including at least two front bearing seatings and two rear bearing seatings; - an input gear; - at least two intermediate gears (2, 2a, 2b), each intermediate gear (2, 2a, 2b) including a first stage meshing with the input gear and a second stage, each intermediate gear (2, 2a, 2b) being attached to the casing via at least one front bearing and one rear bearing, each front bearing being supported by one of the front bearing seatings, each rear bearing being supported by one of the rear bearing seatings; - an output gear wheel meshing with the second stage of each of the intermediate gears; - (a) measuring manufacturing defects of the casing (ΔYav, ΔZav, ΔYar, ΔZar); - (b) calculating a first angular play (δmanufacturing) induced at each intermediate gear (2a, 2b) from the measured manufacturing defects (ΔYav, ΔZav, ΔYar, ΔZar); - (c) estimating a second angular play (δdeformation) induced at each intermediate gear (2a, 2b) by deformations of the casing upon transmitting a threshold torque by the reduction gear; - (d) calculating a total angular play (δtotal) from the first angular play and the second angular play; - (e) selecting two intermediate gears having a phasing difference (-δtotal) compensating for this total angular play.
An ultrasound element (10, 20), comprising a base substrate, wherein a lower electrode layer that has a plurality of lower electrode sections, and a plurality of lower wiring sections that connect the plurality of lower electrode sections, and is connected to a lower electrode terminal to which a drive signal and a bias signal are applied, a lower insulating layer, an upper insulating layer in which a plurality of cavities are formed, an upper electrode layer that has a plurality of upper electrode sections that are disposed to face the respective lower electrode sections via the respective cavities, and a plurality of upper wiring sections that connect the plurality of upper electrode sections, and is connected to an upper electrode terminal at a ground potential, for detecting a capacitance signal, and a protection layer are sequentially stacked on the base substrate, characterized in that the ultrasound element (10, 20) further comprises: a shield electrode section that is formed at least at an upper side of the lower wiring sections, and is connected to a shield electrode terminal at a ground potential, wherein the shield electrode section is also formed in outer circumferential portions of the cavities including a region where the lower electrode sections and the upper electrode sections are disposed to face each other. a shield electrode section that is formed at least at an upper side of the lower wiring sections, and is connected to a shield electrode terminal at a ground potential, wherein the shield electrode section is also formed in outer circumferential portions of the cavities including a region where the lower electrode sections and the upper electrode sections are disposed to face each other.
Camera system for a vehicle, comprising: • at least a first camera which can move relate to at least a second camera, wherein the first camera is configured to be mounted on a movable component of the vehicle, and • a memory device for respectively storing a camera calibration of each camera (3, 4) and a movement model of the movable component, wherein individual images of the first camera and of the second camera can be combined on the basis of the camera calibrations to form an overall view, characterized in that the camera system • has a computing device which is configured to ∘ correct the stored camera calibration of the first camera on the basis of a movement of the first camera, wherein a calculation of the camera calibration of the first camera and of the second camera is carried out on the basis of an optical flow, wherein the calculation occurs continuously, wherein the computing device is designed to correct the stored camera calibration of the first camera on the basis of a movement model, ∘ store the calculated camera calibration in the memory device, and ∘ generate the overall view on the basis of the stored camera calibrations. • at least a first camera which can move relate to at least a second camera, wherein the first camera is configured to be mounted on a movable component of the vehicle, and • a memory device for respectively storing a camera calibration of each camera (3, 4) and a movement model of the movable component, wherein individual images of the first camera and of the second camera can be combined on the basis of the camera calibrations to form an overall view, characterized in that the camera system • has a computing device which is configured to ∘ correct the stored camera calibration of the first camera on the basis of a movement of the first camera, wherein a calculation of the camera calibration of the first camera and of the second camera is carried out on the basis of an optical flow, wherein the calculation occurs continuously, wherein the computing device is designed to correct the stored camera calibration of the first camera on the basis of a movement model, ∘ store the calculated camera calibration in the memory device, and ∘ generate the overall view on the basis of the stored camera calibrations. ∘ correct the stored camera calibration of the first camera on the basis of a movement of the first camera, wherein a calculation of the camera calibration of the first camera and of the second camera is carried out on the basis of an optical flow, wherein the calculation occurs continuously, wherein the computing device is designed to correct the stored camera calibration of the first camera on the basis of a movement model, ∘ store the calculated camera calibration in the memory device, and ∘ generate the overall view on the basis of the stored camera calibrations.
An endoscope insertion support tool comprising: an advancing and retracting member that is disposed in an insertion section of an endoscope, capable of advancing and retracting in a hollow passage, a distal end portion of which communicates with the outside, and has length projected from a distal end of the insertion section; a balloon member that is connected to the distal end of the advancing and retracting member; and fluid supplying and discharging means including a conduit (31, 36) that is connected to the balloon member and inflates and deflates the balloon member according to supply and discharge of a fluid to and from the balloon member, characterized in that the balloon member has a cylindrical and hollow inner peripheral surface and portion for detachably attaching the cylindrical inner peripheral surface portion to an outer peripheral surface on a distal end side of the insertion section of the endoscope such that the balloon member attached to the outer peripheral surface of the insertion section is capable to project forward from the distal end of the insertion section in accordance with advancing motion of the advancing and retracting member. an advancing and retracting member that is disposed in an insertion section of an endoscope, capable of advancing and retracting in a hollow passage, a distal end portion of which communicates with the outside, and has length projected from a distal end of the insertion section; a balloon member that is connected to the distal end of the advancing and retracting member; and fluid supplying and discharging means including a conduit (31, 36) that is connected to the balloon member and inflates and deflates the balloon member according to supply and discharge of a fluid to and from the balloon member, characterized in that the balloon member has a cylindrical and hollow inner peripheral surface and portion for detachably attaching the cylindrical inner peripheral surface portion to an outer peripheral surface on a distal end side of the insertion section of the endoscope such that the balloon member attached to the outer peripheral surface of the insertion section is capable to project forward from the distal end of the insertion section in accordance with advancing motion of the advancing and retracting member.
Process for the preparation of a hardening accelerator composition, preferably containing calcium silicate hydrate, by reaction of a water-soluble calcium compound, preferably calcium salt, with a water-soluble silicate compound, the reaction of the water-soluble calcium compound with the water-soluble silicate compound being carried out in the presence of an aqueous solution which contains a plasticizer suitable for hydraulic binders, selected from the group of comb polymers, polycondensates containing at least one structural unit consisting of an aromatic or heteroaromatic moiety bearing a polyether side chain and at least one structural unit consisting of an aromatic or heteroaromatic moiety bearing at least one phosphoric acid ester group, lignosulphonates and/or β -naphthalene sulphonate formaldehyde condensates, characterized in that the reaction of the water-soluble calcium compound with the water-soluble silicate compound is being carried out in the presence of apatite and that the molar ratio of calcium to phosphor in the hardening accelerator is from 25/1 to 400/1.
A compound of the general formula, wherein R1 is Dab R2 is Thr R3 is DThr R4 is Dab R5 is Dab R6 is DPhe R7 is Leu R8 is Abu R9 is Dab; R10 is Thr; and R is octanoyl; or a pharmaceutically acceptable salt thereof. R1 is Dab R2 is Thr R3 is DThr R4 is Dab R5 is Dab R6 is DPhe R7 is Leu R8 is Abu R9 is Dab; R10 is Thr; and R is octanoyl; or a pharmaceutically acceptable salt thereof.
A glass composition, comprising 50-64 wt% SiO 2, 14-24 wt% Al 2 O 3, 0-7 wt% B 2 O 3 +P 2 O 5, 0.5-7 wt% MgO, 1-10 wt% CaO, 0-9 wt% SrO, 0.1-14 wt% BaO, 0.1-5 wt% ZnO, 0.1-4 wt% TiO 2, 0.1-7 wt% Y 2 O 3 +La 2 O 3 +Nd 2 O 3, and <0.05 wt% R 2 O, wherein R 2 O is a sum of the content of Li 2 O, Na 2 O and K 2 O, and the composition satisfies the following conditions: a temperature T 100 corresponding to a viscosity of 100 P is 1730 °C or higher; a surface tension at 1300 °C is less than 420mN/m; wherein the obtained glass by mixing raw materials and NH 4 NO 3 evenly with the ratio of the above glass composition, performing melting processing, removing gaseous inclusions in a viscosity range of 210-500 P, and then successively performing molding treatment and annealing treatment, satisfies: the content of gaseous inclusions with an equivalent spherical diameter (D.EQ.) greater than 0.02mm is less than 0.5/Kg glass. a temperature T 100 corresponding to a viscosity of 100 P is 1730 °C or higher; a surface tension at 1300 °C is less than 420mN/m;