mhurhangee/patent-ind-claim-en huggingface dataset:
An aerial work platform, comprising: - a chassis mounted on wheels for movement of the aerial work platform on the ground; - a work platform ; - a lifting mechanism mounted on the chassis and supporting the work platform for moving it in height; - two side bars arranged under the chassis, each being able to move with respect to the chassis between: ∘ a raised position; and ∘ a lowered position in which the side bar projects beyond the chassis in the direction of the ground; and - an actuator allocated solely to the actuation of the two side bars for moving them from the raised position to the lowered position and vice versa, characterised in that the actuator has two opposite ends through which it actuates the two side bars by varying the distance between the two ends, the actuator acting on each of the two side bars through another one of the two ends and the actuator being held only through the two ends. - a chassis mounted on wheels for movement of the aerial work platform on the ground; - a work platform ; - a lifting mechanism mounted on the chassis and supporting the work platform for moving it in height; - two side bars arranged under the chassis, each being able to move with respect to the chassis between: ∘ a raised position; and ∘ a lowered position in which the side bar projects beyond the chassis in the direction of the ground; and ∘ a raised position; and ∘ a lowered position in which the side bar projects beyond the chassis in the direction of the ground; and - an actuator allocated solely to the actuation of the two side bars for moving them from the raised position to the lowered position and vice versa,
A collagen-cellulose material comprising: 1.0-9.0 wt. % of a collagen, based on a total weight of the collagen-cellulose material; 0.2-3.0 wt. % of cellulose or a derivative thereof, based on the total weight of the collagen-cellulose material; 0.5-6.5 wt. % of at least one acid selected from the group consisting of an inorganic acid, an organic acid, and mixtures thereof, based on the total weight of the collagen-cellulose material; and water, wherein the collagen-cellulose material is in a form of an artificial blood vessel having an internal and/or external diameter including from 0.1 to 50.0 mm, an artificial tissue, and/or an artificial bone. 1.0-9.0 wt. % of a collagen, based on a total weight of the collagen-cellulose material; 0.2-3.0 wt. % of cellulose or a derivative thereof, based on the total weight of the collagen-cellulose material; 0.5-6.5 wt. % of at least one acid selected from the group consisting of an inorganic acid, an organic acid, and mixtures thereof, based on the total weight of the collagen-cellulose material; and water, wherein the collagen-cellulose material is in a form of an artificial blood vessel having an internal and/or external diameter including from 0.1 to 50.0 mm, an artificial tissue, and/or an artificial bone.
A rocker arm for a valve drive of an internal combustion engine having a rocker arm portion , wherein the rocker arm portion has a support surface for transmitting a valve actuating movement, and having a pivoting portion for the pivotable mounting of the rocker arm portion about a pivot axis , wherein the rocker arm has a thermally sprayed-on ceramic layer with a layer thickness of more than 50 μm and less than 120 μm, wherein the ceramic layer is arranged on the support surface and forms a contact surface for transmitting the valve actuating movement, wherein the rocker arm portion has a transverse beam region and guide arm regions , wherein the transverse beam region extends in the axial direction relative to the pivot axis , wherein the contact surface is arranged on the transverse beam region and wherein the guide arm regions form an axial boundary with respect to the contact surface , wherein the rocker arm has a base body , wherein the base body is designed as a formed sheet-metal part made of steel, which integrally comprises the guide arm regions and the transverse beam region , and wherein the formed sheet-metal part has two side-wall regions , wherein, in the pivoting portion , the side-wall regions each have a holder for a pivoting device , wherein the transverse beam region connects and/or bridges the two side-wall regions in the axial direction relative to the pivot axis , and wherein the guide arm portions are formed as extensions of the side-wall regions, which are bent in such a way that they form the axial boundaries of the contact surface .
Method for capturing an image using an imaging system on-board a carrier, including a ground vehicle, an aircraft, a satellite (S) or a ship, wherein the imaging system is pointed towards a target zone (Z), an image thereof is to be captured according to a line of sight (V) of the imaging system which is subjected to variations relative to the target zone due to vibrations of said imaging system, wherein an optical detection device is rigidly connected to the imaging system during the variations in the line of sight of the imaging system, said optical detection device being adapted to form, within a focal plane (PF 2 ), an image (V 0 ) of a radiation source remote from the carrier and towards which said optical detection device itself is pointed, and to detect a displacement, within said focal plane, of said image of the remote radiation source in order to provide a characterisation of the variations of the line of sight of the imaging system, the optical detection device itself forming a part of a laser signal optical communication terminal which is on-board the carrier (S), and being pointed, during the image capturing sequence carried out by the imaging system , towards a laser signal optical communication terminal external to the carrier, and used to constitute the remote radiation source, the method being characterised in that the imaging system comprises a movable compensating mirror , controlled in real time during an image capturing sequence as a function of the characterisation of the variations of the line of sight (V) of the imaging system which is provided by the optical detection device , in order to reduce a displacement amplitude of the target zone (Z) in the image captured by the imaging system, and in that the optical detection device is further used to transmit data of the image captured by the imaging system to the laser signal optical communication terminal which is external to the carrier.
Process for the preparation of an aqueous solution of a borohydride or an aluminohydride denoted XH 4 where X is chosen from KB, LiB, NaAl, KAI, LiAl or NaB, carried in an underwater vehicle, said process comprising dissolution of XH 4 in the form of tablets in an aqueous dissolution solution , such that the dissolution is carried out in a dissolution chamber and a storage reservoir of XH 4 tablets , and is carried out by forced circulation of the aqueous dissolution solution between said storage reservoir and the dissolution chamber .
High-powered and flexible composite torsion shaft , which is intended to be attached to a drive shaft, and which torsion shaft has • a core element and a reinforcement comprising a polymeric base substance and • a multi-layered (16, 16', 16", 16"') reinforcing-fibre reinforcement forming a casing layer around the core element, each reinforcing-fibre layer being wound around the core element by hoop winding, in which in at least one reinforcing-fibre layer (16, 16', 16", 16′′′) there is a reinforcing-fibre reinforcement wound alternate in an opposite direction, and where • the winding angle is increasing as the average layer diameter increases, and several reinforcing-fibre layers (16, 16',16", 16′′′) are taken into the same impregnation by polymeric base substance , which is absorbing the entire layer (16, 16', 16", 16′′′), • the core element is preventing buckling in the casing component when the torsion shaft is bent into a curve. • a length of the flexible torsion shaft is 2 - 40 m, • the nominal torque M is in the range 2 - 30 Nm and the diameter D of the torsion shaft is then in the range D = 2.2 mm x √(M/Nm) ±30%, • the minimum curvature radius of the high-powered flexible torsion shaft is 30 - 200 cm, preferably 50 - 100 cm, and • the weight of the fibres is 50 - 75 % of the total weight, characterized in that the polymeric base substance is polyurethane-based polymer and said increasing winding angles are in the range of 45 - 57 degrees. • a core element and a reinforcement comprising a polymeric base substance and • a multi-layered (16, 16', 16", 16"') reinforcing-fibre reinforcement forming a casing layer around the core element, each reinforcing-fibre layer being wound around the core element by hoop winding, in which in at least one reinforcing-fibre layer (16, 16', 16", 16′′′) there is a reinforcing-fibre reinforcement wound alternate in an opposite direction, and where • the winding angle is increasing as the average layer diameter increases, and several reinforcing-fibre layers (16, 16',16", 16′′′) are taken into the same impregnation by polymeric base substance , which is absorbing the entire layer (16, 16', 16", 16′′′), • the core element is preventing buckling in the casing component when the torsion shaft is bent into a curve. • a length of the flexible torsion shaft is 2 - 40 m, • the nominal torque M is in the range 2 - 30 Nm and the diameter D of the torsion shaft is then in the range D = 2.2 mm x √(M/Nm) ±30%, • the minimum curvature radius of the high-powered flexible torsion shaft is 30 - 200 cm, preferably 50 - 100 cm, and • the weight of the fibres is 50 - 75 % of the total weight,
Method for depositing a coating on short carbon or silicon carbide fibres from a coating precursor , the short fibres having a length of between 50 μm and 5 mm, the method being characterised in that it comprises at least: heating the short fibres by placing a mixture comprising said fibres and a liquid phase of the coating precursor in a microwave field so as to bring the surface of the fibres to a temperature which allows the formation, by film boiling, of the coating on the fibres from the coating precursor, the coating being an interphase coating comprising pyrolytic carbon, boron nitride, silicon carbide, silicon nitride Si 3 N 4 , or SiBN, and the liquid phase of the precursor coupling with the microwave field in order to bring it to the boil.
A crystalline form of 2-((2-chlorophenyl)(phenyl)amino)-N-(7-(hydroxyamino)-7-oxoheptyl)pyrimidine-5-carboxamide; wherein the crystalline form is characterized by an X-ray powder diffraction pattern having peaks expressed in degrees-2-theta at angles 8.3±0.2°, 10.6±0.2°, 16.6±0.2°, 21.3±0.2°, and 25.0±0.2° (Form I), wherein the X-ray powder diffraction pattern is obtainable using a Bruker D8 Advance equipped with a Cu Kα radiation source (λ=1.54 °A), a 9-position sample holder and a LYNXEYE super speed detector.
A control mechanism for rotating an instrument tip located at the distal end of an instrument channel in a surgical scoping device, the control mechanism comprising: an actuator formed from a shape memory effect material; and an energy delivery structure connected to the actuator to deliver energy to cause a change in temperature of the shape memory effect material, wherein the actuator is configured to exhibit a torque between a proximal end and a distal end thereof in response to the shape memory effect material reaching a threshold temperature. an actuator formed from a shape memory effect material; and an energy delivery structure connected to the actuator to deliver energy to cause a change in temperature of the shape memory effect material, wherein the actuator is configured to exhibit a torque between a proximal end and a distal end thereof in response to the shape memory effect material reaching a threshold temperature.
A drill comprising: a drill bit comprising a first drill part and a second drill part configured to slide relative to each other, wherein the first and second drill parts are pivotally coupled at one end to a first member and a second member respectively; a cam engaged with the first member and the secondmember , wherein the first and second members act as followers to slide the parts of the drill bit in a reciprocating motion with respect to each other, between a retracted and an extended position; and a wedge comprising a first angled surface engaged with the first member and a second angled surface engaged with the second member , the wedge configured to urge the drill bit to pivot in a first direction when the first member is moved towards the retracted position and to pivot in a second directionwhen the second member is moved towards the retracted position. a drill bit comprising a first drill part and a second drill part configured to slide relative to each other, wherein the first and second drill parts are pivotally coupled at one end to a first member and a second member respectively; a cam engaged with the first member and the secondmember , wherein the first and second members act as followers to slide the parts of the drill bit in a reciprocating motion with respect to each other, between a retracted and an extended position; and a wedge comprising a first angled surface engaged with the first member and a second angled surface engaged with the second member , the wedge configured to urge the drill bit to pivot in a first direction when the first member is moved towards the retracted position and to pivot in a second directionwhen the second member is moved towards the retracted position.
An assembly comprising: a stringer coupled to a composite structure of an aircraft, the stringer and the composite structure to form a stringer radius gap ; and a gap filler disposed in the stringer radius gap, the gap filler including chopped fibers randomly distributed throughout substantially an entire volume of the gap filler such that more than 75% of the volume of the gap filler includes at least a portion of at least one fiber, said chopped fibers being oriented in multiple directions in any given plane of the gap filler; wherein the stringer includes an edge chamfer of between 13 degrees and 17 degrees. a stringer coupled to a composite structure of an aircraft, the stringer and the composite structure to form a stringer radius gap ; and a gap filler disposed in the stringer radius gap, the gap filler including chopped fibers randomly distributed throughout substantially an entire volume of the gap filler such that more than 75% of the volume of the gap filler includes at least a portion of at least one fiber, said chopped fibers being oriented in multiple directions in any given plane of the gap filler; wherein the stringer includes an edge chamfer of between 13 degrees and 17 degrees.
A cannula assembly , having an elongate cannula tube with a proximal inlet opening , a distal outlet opening , a lumen extending continuously between the inlet opening and the outlet opening , and with a sharpened cannula tip delimiting the outlet opening , wherein the cannula tube is configured to receive and guide a flexible medical functional section (F), which can be inserted into the lumen and is movable along the lumen , wherein a blocking device with at least one blocking element is provided and assigned to the lumen , wherein the at least one blocking element is configured to interact with the flexible medical functional section (F) and, depending on a movement direction of the flexible medical functional section (F), is automatically transferred between a blocking position, in which the at least one blocking element blocks a proximally directed withdrawal movement (R) of the flexible medical functional section (F) by acting on the flexible medical functional section (F), and a release position, in which the at least one blocking element releases a distally directed advancing movement (V), characterized in that the blocking device is integrated in the cannula tube . an elongate cannula tube with a proximal inlet opening , a distal outlet opening , a lumen extending continuously between the inlet opening and the outlet opening , and with a sharpened cannula tip delimiting the outlet opening , wherein the cannula tube is configured to receive and guide a flexible medical functional section (F), which can be inserted into the lumen and is movable along the lumen , wherein a blocking device with at least one blocking element is provided and assigned to the lumen , wherein the at least one blocking element is configured to interact with the flexible medical functional section (F) and, depending on a movement direction of the flexible medical functional section (F), is automatically transferred between a blocking position, in which the at least one blocking element blocks a proximally directed withdrawal movement (R) of the flexible medical functional section (F) by acting on the flexible medical functional section (F), and a release position, in which the at least one blocking element releases a distally directed advancing movement (V), characterized in that the blocking device is integrated in the cannula tube .
An absorbent article , wherein the absorbent article is selected from a diaper or pant, comprising: a chassis comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , and comprising a longitudinal axis (y) extending along a length of said chassis and a transverse axis being substantially perpendicular to the longitudinal axis and extending along a width of said chassis, wherein said length extends along the longest dimension of said chassis; and at least one elastically elongatable panel joined to the chassis, wherein the elastically elongatable panel comprises: a. at least one cover layer ; and b. an elastomeric film attached to the cover layer , wherein said least one cover layer and elastomeric film are joined by mechanical bonding, at a plurality of discrete bonding elements and wherein each said panel comprises a plurality of wrinkles having peaks and troughs formed on at least one of said cover layer , wherein said panel comprises an average of no more than two, preferably no more than one, wrinkles between two consecutive discrete bonding elements along a panel length (L) extending substantially parallel to the transverse axis, and characterised that said panel comprises a wrinkle distribution of at least 1.1 wrinkles/mm and up to 2.5 wrinkles/mm, according to the method herein. a chassis comprising a liquid permeable topsheet , a liquid impermeable backsheet , and an absorbent core positioned between said topsheet and backsheet , and comprising a longitudinal axis (y) extending along a length of said chassis and a transverse axis being substantially perpendicular to the longitudinal axis and extending along a width of said chassis, wherein said length extends along the longest dimension of said chassis; and at least one elastically elongatable panel joined to the chassis, wherein the elastically elongatable panel comprises: a. at least one cover layer ; and b. an elastomeric film attached to the cover layer , a. at least one cover layer ; and b. an elastomeric film attached to the cover layer , wherein said least one cover layer and elastomeric film are joined by mechanical bonding, at a plurality of discrete bonding elements and wherein each said panel comprises a plurality of wrinkles having peaks and troughs formed on at least one of said cover layer , wherein said panel comprises an average of no more than two, preferably no more than one, wrinkles between two consecutive discrete bonding elements along a panel length (L) extending substantially parallel to the transverse axis, and characterised that said panel comprises a wrinkle distribution of at least 1.1 wrinkles/mm and up to 2.5 wrinkles/mm, according to the method herein.
A polymerization catalyst system comprising: a non-metallocene catalyst; and a metallocene catalyst of the formula: wherein R 1 and R 2 are each independently, phenyl, methyl, chloro, fluoro, or a hydrocarbyl group. a non-metallocene catalyst; and a metallocene catalyst of the formula: wherein R 1 and R 2 are each independently, phenyl, methyl, chloro, fluoro, or a hydrocarbyl group.
An assembly for a differential unit of a vehicle , the assembly comprising: - a first housing portion designed to be assembled with a second housing portion for forming a differential carrier housing ; - a first and a second supporting devices , each comprising a main portion having substantially the shape of a ring and a base portion attached to the first housing portion so that the main portions of the first and second supporting devices are substantially coaxial along a longitudinal direction (X), the first and second supporting devices being configured to support, in use, a system comprising a crown wheel and a differential housing containing a differential , the system having two end portions each including a bearing which has an inner ring arranged around the differential housing , an outer ring configured to be mounted in the main portion of one of the supporting devices , and rolling elements ; wherein the first housing portion , the first supporting device and the second supporting device are made as a single piece, characterized in that the main portion of at least one supporting device comprises a notch for inserting at least part of a corresponding end portion of the system , the notch opening : - in a radial direction (Y), which is orthogonal to the longitudinal direction (X); and - in the longitudinal direction (X), towards the opposite supporting device . - a first housing portion designed to be assembled with a second housing portion for forming a differential carrier housing ; - a first and a second supporting devices , each comprising a main portion having substantially the shape of a ring and a base portion attached to the first housing portion so that the main portions of the first and second supporting devices are substantially coaxial along a longitudinal direction (X), the first and second supporting devices being configured to support, in use, a system comprising a crown wheel and a differential housing containing a differential , the system having two end portions each including a bearing which has an inner ring arranged around the differential housing , an outer ring configured to be mounted in the main portion of one of the supporting devices , and rolling elements ; - in a radial direction (Y), which is orthogonal to the longitudinal direction (X); and - in the longitudinal direction (X), towards the opposite supporting device .