mhurhangee/patent-ind-claim-en huggingface dataset:
End cap for a rail , in particular of a longitudinal adjuster , wherein the end cap has a covering portion , for covering an end-face end of the rail , and a fastening portion , for fastening the end cap to the rail , characterized in that the fastening portion is connected to the covering portion with the formation of a four-joint coupling mechanism , wherein the four-joint coupling mechanism is defined by a frame, a first link , a second link and the fastening portion which is coupled to the two links .
A method of manufacturing a three-dimensional structure from a 3D printable plastic material by means of a 3D print head , the method comprising the following steps: - Feeding the 3D printable plastic material to the 3D print head and - Extruding the plastic material fed to the 3D print head from an outlet opening of the 3D print head , - wherein the extruded plastic material is cooled by means of a cooling device by directing at least one fluid flow onto the extruded plastic material , and - wherein the cooling of the extruded plastic material is varied with respect to the cooling performance and/or the cooling direction by means of the cooling device , characterized in that a nozzle arranged movably on the 3D print head for outputting the fluid flow is arranged movably around the extruded plastic material , so that the cooling direction can be changed from a first cooling direction to a second cooling direction by moving the nozzle . - Feeding the 3D printable plastic material to the 3D print head and - Extruding the plastic material fed to the 3D print head from an outlet opening of the 3D print head , - wherein the extruded plastic material is cooled by means of a cooling device by directing at least one fluid flow onto the extruded plastic material , and - wherein the cooling of the extruded plastic material is varied with respect to the cooling performance and/or the cooling direction by means of the cooling device ,
An aircraft assembly comprising: a fluid pipe , a wing rib defining a rib plane and having an opening , wherein the fluid pipe extends through the rib plane and through the opening , and a pipe support comprising a first part and a second part which together form a collar configured to retain the pipe , the pipe support being movable between an open condition, in which the pipe is insertable between the first and second parts , and a closed condition, in which the first and second parts are brought together to retain the pipe , and characterised in that : at least part of the collar is disposed in the opening in the wing rib so that the pipe support is restricted from moving from the closed condition, and wherein the pipe support supports the fluid pipe in the opening . a fluid pipe , a wing rib defining a rib plane and having an opening , wherein the fluid pipe extends through the rib plane and through the opening , and a pipe support comprising a first part and a second part which together form a collar configured to retain the pipe , the pipe support being movable between an open condition, in which the pipe is insertable between the first and second parts , and a closed condition, in which the first and second parts are brought together to retain the pipe , and characterised in that : at least part of the collar is disposed in the opening in the wing rib so that the pipe support is restricted from moving from the closed condition, and wherein the pipe support supports the fluid pipe in the opening . a first part and a second part which together form a collar configured to retain the pipe , the pipe support being movable between an open condition, in which the pipe is insertable between the first and second parts , and a closed condition, in which the first and second parts are brought together to retain the pipe , and characterised in that : at least part of the collar is disposed in the opening in the wing rib so that the pipe support is restricted from moving from the closed condition, and wherein the pipe support supports the fluid pipe in the opening . at least part of the collar is disposed in the opening in the wing rib so that the pipe support is restricted from moving from the closed condition, and wherein the pipe support supports the fluid pipe in the opening .
A Silybum marianum (L.) Gaertn. achene extract comprising less than 0.2%, preferably less than 0.1% by weight of silymarin with respect to the weight of the dry extract, and obtainable by a method comprising a step for extracting an oil obtained from Silybum marianum (L.) Gaertn. achenes with an extraction solvent comprising a hydrotropic aqueous solution, subcritical water or an organic solvent not miscible with the oil obtained from Silybum marianum (L.) Gaertn. achenes optionally in a mixture with water, for use thereof in the treatment of acne, seborrhoea, rosacea and/or seborrheic dermatitis.
A method comprising: transferring microLED chips from an epitaxy wafer to a first coupon substrate , the first coupon substrate having a first, soft adhesive layer that temporarily holds the microLED chips; transferring via one or more transfer substrates, a subset of the microLED chips from the first coupon substrate to a second coupon substrate having a second, soft adhesive layer that temporarily holds the subset of microLED chips; and transferring a pattern of microLED chips from another substrate to the second coupon substrate via the one or more transfer substrates to fill vacancies in the subset of microLED chips, wherein the first and second transfer substrates have a plurality of transfer elements , each transfer element having lateral dimensions (W) from one or more micrometers to several hundreds of micrometers to pick up micro-objects of like dimensions, wherein the plurality of transfer elements are individually actuated to simultaneously hold and release pluralities of the microLED chips. transferring microLED chips from an epitaxy wafer to a first coupon substrate , the first coupon substrate having a first, soft adhesive layer that temporarily holds the microLED chips; transferring via one or more transfer substrates, a subset of the microLED chips from the first coupon substrate to a second coupon substrate having a second, soft adhesive layer that temporarily holds the subset of microLED chips; and transferring a pattern of microLED chips from another substrate to the second coupon substrate via the one or more transfer substrates to fill vacancies in the subset of microLED chips, wherein the first and second transfer substrates have a plurality of transfer elements , each transfer element having lateral dimensions (W) from one or more micrometers to several hundreds of micrometers to pick up micro-objects of like dimensions, wherein the plurality of transfer elements are individually actuated to simultaneously hold and release pluralities of the microLED chips.
Gunner's sight comprising a housing , with at least one opening in the housing , with at least one optic which is arranged in the housing in such a way that the line of sight of the optic runs through the opening , wherein at least one protective element is provided, and the protective element can be transferred from a protective position into a rest position and vice versa, wherein in the protective position the protective element is arranged at least partially in the opening and in the rest position it is arranged outside the opening , characterized in that the protective element is designed to be at least partially transparent and in that the transparent region of the protective element is reinforced in such a way that it withstands ballistic impacts.
A pressure vessel comprising: a front end plate and a rear end plate ; a plurality of open-ended vessel structures , constructed of fibre-reinforced polymer matrix composite material, the open-ended vessel structures positioned adjacent to one another so that their longitudinal axes are parallel to a longitudinal direction extending between the front end plate and the rear end plate , and the open-ended vessel structures being closed by the front end plate and the rear end plate ; and an outer reinforcement comprising polymer matrix composite material with continuous fibres extending longitudinally around the pressure vessel to secure the front end plate and the rear end plate to the vessel structures ; wherein at least one of the vessel structures has a partially curved cross section in a plane perpendicular to its longitudinal axis, such that one or more crevices are formed between the vessel structures , running longitudinally between the front end plate and the rear end plate ; and wherein the front end plate and the rear end plate are each shaped such that the outer reinforcement at least partially fills the one or more crevices between the vessel structures . a front end plate and a rear end plate ; a plurality of open-ended vessel structures , constructed of fibre-reinforced polymer matrix composite material, the open-ended vessel structures positioned adjacent to one another so that their longitudinal axes are parallel to a longitudinal direction extending between the front end plate and the rear end plate , and the open-ended vessel structures being closed by the front end plate and the rear end plate ; and an outer reinforcement comprising polymer matrix composite material with continuous fibres extending longitudinally around the pressure vessel to secure the front end plate and the rear end plate to the vessel structures ; wherein at least one of the vessel structures has a partially curved cross section in a plane perpendicular to its longitudinal axis, such that one or more crevices are formed between the vessel structures , running longitudinally between the front end plate and the rear end plate ; and wherein the front end plate and the rear end plate are each shaped such that the outer reinforcement at least partially fills the one or more crevices between the vessel structures .
A method for controlling a vehicle I based on neighboring vehicles , the method comprising: identifying a fiduciary object associated with at least one neighboring vehicle I based on at least one image captured of the at least one neighboring vehicle; tracking a position of the fiduciary object associated with the at least one neighboring vehicle based on a bounding box surrounding the fiduciary object associated with the at least one neighboring vehicle in the at least one image; determining a first direction-speed vector associated with the vehicle Z based on a direction of motion of the vehicle and a speed of the vehicle; determining trajectory data associated with the at least one neighboring vehicle; correlating the position of the fiduciary object and the trajectory data associated with the at least one neighboring vehicle; determining a second direction-speed vector of the vehicle based on a result of correlating; and controlling the vehicle based on the second direction-speed vector. identifying a fiduciary object associated with at least one neighboring vehicle I based on at least one image captured of the at least one neighboring vehicle; tracking a position of the fiduciary object associated with the at least one neighboring vehicle based on a bounding box surrounding the fiduciary object associated with the at least one neighboring vehicle in the at least one image; determining a first direction-speed vector associated with the vehicle Z based on a direction of motion of the vehicle and a speed of the vehicle; determining trajectory data associated with the at least one neighboring vehicle; correlating the position of the fiduciary object and the trajectory data associated with the at least one neighboring vehicle; determining a second direction-speed vector of the vehicle based on a result of correlating; and controlling the vehicle based on the second direction-speed vector.
A surface vessel with a pick-up ramp for a small watercraft , the surface vessel being designed to pick up various small watercraft , the pick-up ramp having a pick-up direction , the small watercraft being picked up in the pick-up ramp along the pick-up direction , the pick-up ramp having a first pick-up device , wherein the first receiving device has 8 to 200 axle assemblies, wherein each axle assembly has a centre axle element , wherein the centre axle element is arranged transversely to the receiving direction , wherein the centre axle element is arranged horizontally, wherein the axle assembly has two lateral axle elements , wherein the centre axle element has at least one first roller element and each lateral axle element has at least one second roller element , wherein the first roller elements and the second roller elements are designed for contact with the small watercraft , wherein d he centre axle element is connected at both ends to the lateral axle elements in each case via a mechanical coupling, so that the centre axle element and the lateral axle elements are jointly rotatable, wherein the lateral axle elements are pivotable relative to the central axle element , wherein the first receiving device has a first drive , wherein the first drive is non-positively connected to a central axle element , wherein in each case exactly two neighbouring central axle elements are connected to one another in such a way that the in each case exactly two neighbouring central axle elements are connected to rotate together.
Method for obtaining the position of a person in a space (E) of a building via a thermal imager located at height in said space (E) and comprising a wide-angle lens , the method comprising steps of: a) acquiring , with the thermal imager , through its wide-angle lens , a deformed thermal image of a scene (S) in the space (E) comprising the person, the thermal image being optically deformed by the wide-angle lens , and the deformed thermal image comprising a hot zone ; b) extracting a region of interest corresponding to the person from the deformed thermal image using an algorithm for detecting hot zones ; c) determining the position of the region of interest in the deformed thermal image by identifying the polar coordinates distance r and angle θ of the centre of the region of interest in a polar coordinate system the origin of which is located at the centre (O) of the deformed thermal image; d) obtaining the actual position of the person in the space (E) by applying a wide-angle correction function to the distance r so as to compensate for the deformation of the thermal image due to the wide-angle lens . a) acquiring , with the thermal imager , through its wide-angle lens , a deformed thermal image of a scene (S) in the space (E) comprising the person, the thermal image being optically deformed by the wide-angle lens , and the deformed thermal image comprising a hot zone ; b) extracting a region of interest corresponding to the person from the deformed thermal image using an algorithm for detecting hot zones ; c) determining the position of the region of interest in the deformed thermal image by identifying the polar coordinates distance r and angle θ of the centre of the region of interest in a polar coordinate system the origin of which is located at the centre (O) of the deformed thermal image; d) obtaining the actual position of the person in the space (E) by applying a wide-angle correction function to the distance r so as to compensate for the deformation of the thermal image due to the wide-angle lens .
A method of iodation of baker's yeast for using in livestock and poultry feeding which includes the stage of iodation with elementary iodine in activate state, wherein iodation is carried out in aqueous media at a temperature of 40-60°C, with pH from 3.0 to 5.5, and under constant stirring by sequentially adding potassium iodide and treating with hydrogen peroxide as an oxidizing agent for 20 to 60 minutes.
A plurality of granules comprising ceramic particles bound together with an inorganic binder, the inorganic binder comprising reaction product of at least alkali silicate and hardener, wherein the ceramic particles are present as at least 50 percent by weight of each granule, based on the total weight of the respective granule, wherein each granule has a total porosity in a range from greater than 0 to 50 percent by volume, based on the total volume of the respective granule, and wherein the granule has a minimum Total Solar Reflectance of at least 0.70.
A recanalization catheter for facilitating re-entry into a lumen of a blood vessel from a subintimal space, comprising: an elongate shaft extending distally from a hub assembly , the elongate shaft including a guidewire lumen extending through a distal port at a distal tip of the elongate shaft; first and second mechanically actuatable wings positioned at a distal region of the elongate shaft , the first and second mechanically actuatable wings being actuatable between a retracted position and an expanded position with an actuation mechanism extending through the elongate shaft to the hub assembly ; the distal region of the elongate shaft including first and second elongate channels opening out to an exterior of the elongate shaft ; wherein in the retracted position the first and second mechanically actuatable wings are positioned in the first and second elongate channels , respectively, and in the expanded position the first and second mechanically actuatable wings extend outward from the first and second elongate channels , respectively; wherein the distal region of the elongate shaft includes a lateral port in communication with the guidewire lumen , wherein when viewed along a central longitudinal axis of the elongate shaft , the first and second mechanically actuatable wings extend in an arcuate path away from the elongate shaft in the expanded position to be positionable in a circumferential orientation within a subintimal space formed in a vessel wall . an elongate shaft extending distally from a hub assembly , the elongate shaft including a guidewire lumen extending through a distal port at a distal tip of the elongate shaft; first and second mechanically actuatable wings positioned at a distal region of the elongate shaft , the first and second mechanically actuatable wings being actuatable between a retracted position and an expanded position with an actuation mechanism extending through the elongate shaft to the hub assembly ; the distal region of the elongate shaft including first and second elongate channels opening out to an exterior of the elongate shaft ; wherein in the retracted position the first and second mechanically actuatable wings are positioned in the first and second elongate channels , respectively, and in the expanded position the first and second mechanically actuatable wings extend outward from the first and second elongate channels , respectively; wherein the distal region of the elongate shaft includes a lateral port in communication with the guidewire lumen , wherein when viewed along a central longitudinal axis of the elongate shaft , the first and second mechanically actuatable wings extend in an arcuate path away from the elongate shaft in the expanded position to be positionable in a circumferential orientation within a subintimal space formed in a vessel wall .
A method of generating a demodulation reference signal, DMRS, sequence for transmitting a device-to-device, D2D, signal, by a user equipment, UE, in a wireless communication system, the method comprising: determining a sequence group; determining a base sequence in the sequence group; generating a reference signal sequence by applying cyclic shift to the base sequence; generating the DMRS sequence from the reference signal sequence; and transmitting a DMRS generated based on the DMRS sequence, wherein ID information, which is used for performing group hopping for the sequence group, corresponds to a layer 1 ID, L1 ID, changing according to time, wherein an index of a slot is used for at least one selected from the group consisting of the determination of the sequence group, the determination of the base sequence, and the application of the cyclic shift. determining a sequence group; determining a base sequence in the sequence group; generating a reference signal sequence by applying cyclic shift to the base sequence; generating the DMRS sequence from the reference signal sequence; and transmitting a DMRS generated based on the DMRS sequence, wherein ID information, which is used for performing group hopping for the sequence group, corresponds to a layer 1 ID, L1 ID, changing according to time, wherein an index of a slot is used for at least one selected from the group consisting of the determination of the sequence group, the determination of the base sequence, and the application of the cyclic shift.
A method for determining a scanning speed of a high-energy beam of a manufacturing device for the additive manufacturing of a component, in particular a component of a turbomachine, comprising the steps: - Guiding the high-energy beam generated by means of a radiation source of the manufacturing device over a surface ; - Detecting a section illuminated by the high-energy beam on the surface for a predetermined time period by recording respective brightness values of the surface by means of a detection device during the predetermined time period, wherein the detection device for compliance with the time period predetermined for the detection is switched on and off by means of a pulse generator or an aperture of the detection device is opened and closed; - Calculating the scanning speed as a function of the predetermined time period and the detected illuminated section by means of an evaluation device . - Guiding the high-energy beam generated by means of a radiation source of the manufacturing device over a surface ; - Detecting a section illuminated by the high-energy beam on the surface for a predetermined time period by recording respective brightness values of the surface by means of a detection device during the predetermined time period, wherein the detection device for compliance with the time period predetermined for the detection is switched on and off by means of a pulse generator or an aperture of the detection device is opened and closed; - Calculating the scanning speed as a function of the predetermined time period and the detected illuminated section by means of an evaluation device .
Device for detecting liquids, in particular in the event of a leakage, having a housing and a printed circuit board which is arranged in the housing and on which a capacitive sensor with at least one electrode is formed, wherein an opening which is covered by the printed circuit board is formed on a base of the housing , and the at least one electrode of the sensor is arranged on an underside of the printed circuit board in the region of the opening , characterized in that the printed circuit board and the housing are bonded to one another in a sealed manner, so that no liquid can penetrate into the housing via the opening , and the housing is formed with the printed circuit board in the shape of a trough and is buoyant.