mhurhangee/ep-ind-claims huggingface dataset:
A wind estimation system for an aircraft, the system comprising: a first sensor configured to sense a first position associated with an aircraft control component in a wind condition; a second sensor configured to sense a first configuration associated with a rotor system of the aircraft in the wind condition including sensing flapping angles (a 1, b 1) of rotor blades of the aircraft; and at least one controller (205, 235) in communication with the first sensor and the second sensor, the at least one controller being configured to: determine a tip-path-plane angle of the aircraft based on the first position and the first configuration; and determine at least one of a current wind speed or current wind direction associated with the wind condition based on the tip-path-plane angle. a first sensor configured to sense a first position associated with an aircraft control component in a wind condition; a second sensor configured to sense a first configuration associated with a rotor system of the aircraft in the wind condition including sensing flapping angles (a 1, b 1) of rotor blades of the aircraft; and at least one controller (205, 235) in communication with the first sensor and the second sensor, the at least one controller being configured to: determine a tip-path-plane angle of the aircraft based on the first position and the first configuration; and determine at least one of a current wind speed or current wind direction associated with the wind condition based on the tip-path-plane angle. determine a tip-path-plane angle of the aircraft based on the first position and the first configuration; and determine at least one of a current wind speed or current wind direction associated with the wind condition based on the tip-path-plane angle.
Planet carrier for supporting at least one planet ring in a planet gear for an adjustment device for adjusting two components which are adjustable relative to each other, wherein - the planet ring comprises a planet ring axis that has a first axis segment extending beyond the planet ring and a second axis segment extending beyond the planet ring, and the planet carrier comprises - a tubular base body which has an outer surface, - a least one through-hole arranged in and extending through the base body, - a first support segment extending out of the through-hole and the outer surface, and - a second support segment extending out of the through-hole and the outer surface, wherein - the first and the second support segment (22, 24) are configured to rotatably receive the first and the second axis segment (30, 32) and - the planet carrier includes at least one fixing means for fixing the first and the second axis segment (30, 32) in the support segments (22, 24), characterized in that the fixing means are implemented as elastically deformable protrusions formed from the base body such that the axis segments (30, 32) can be snapped into or are snapped in the support segments (22, 24), or the fixing means are implemented as plastically deformable protrusions formed from the base body. - the planet ring comprises a planet ring axis that has a first axis segment extending beyond the planet ring and a second axis segment extending beyond the planet ring, and the planet carrier comprises - a tubular base body which has an outer surface, - a least one through-hole arranged in and extending through the base body, - a first support segment extending out of the through-hole and the outer surface, and - a second support segment extending out of the through-hole and the outer surface, wherein - the first and the second support segment (22, 24) are configured to rotatably receive the first and the second axis segment (30, 32) and - the planet carrier includes at least one fixing means for fixing the first and the second axis segment (30, 32) in the support segments (22, 24), characterized in that the fixing means are implemented as elastically deformable protrusions formed from the base body such that the axis segments (30, 32) can be snapped into or are snapped in the support segments (22, 24), or the fixing means are implemented as plastically deformable protrusions formed from the base body.
A scraper device for a rotary tablet press, comprising a scraper which is designed to scrap off material located on the upper side of a die table rotating with respect to the scraper and to be compressed, and comprising a force generating unit, which is designed to push the scraper onto the upper side of the die table with a predefined pressing force, wherein the force generating unit comprises a fluid cushion filled with a fluid and being directly or via at least one transmission element in contact with the scraper in order to press the scraper onto the upper side of the die table with the predefined pressing force, characterised in that the force generating unit furthermore comprises a pressure measurement unit, which measures directly or indirectly the fluid pressure existent in the fluid cushion.
A vehicle control system comprising: at least one radar sensor mounted to a host vehicle to have a sensing area for an outside of the host vehicle; and a controller configured to follow an ultimate target vehicle in a driving route of the host vehicle based on the processed sensing data by the radar sensor, wherein the controller selects a target vehicle based on object information obtained from a result of processing the sensing data, generates a first driving route (110; 410) of the host vehicle based on road information about a road on which the host vehicle runs, obtained from the result of processing the sensing data, generates a second driving route (120; 420) obtained by correcting the first driving route (110; 410) based on road structure information comprised in the road information, determines a lateral offset based on the selected target vehicle and the second driving route (120; 420), and selects the target vehicle as the ultimate target vehicle based on the lateral offset, characterised in that if a road structure is detected, the controller determines a lateral width between the road structure and the first driving route (110; 410) and thereby generates the second driving route (120; 420). at least one radar sensor mounted to a host vehicle to have a sensing area for an outside of the host vehicle; and a controller configured to follow an ultimate target vehicle in a driving route of the host vehicle based on the processed sensing data by the radar sensor, wherein the controller selects a target vehicle based on object information obtained from a result of processing the sensing data, generates a first driving route (110; 410) of the host vehicle based on road information about a road on which the host vehicle runs, obtained from the result of processing the sensing data, generates a second driving route (120; 420) obtained by correcting the first driving route (110; 410) based on road structure information comprised in the road information, determines a lateral offset based on the selected target vehicle and the second driving route (120; 420), and selects the target vehicle as the ultimate target vehicle based on the lateral offset, characterised in that if a road structure is detected, the controller determines a lateral width between the road structure and the first driving route (110; 410) and thereby generates the second driving route (120; 420).
A method for calculating a load distribution among a plurality of rotary machines of a machine station comprising the following steps: - obtaining first data indicative of the operating status of said machine station and of said rotary machines at a first operating instant, second data indicative of the operating set-points established for said machine station and for said rotary machines at said first operating instant and third data indicative of the operating limits established for said machine station and for said rotary machines at said first operating instant; and - determining one or more first estimated performance parameters (αi) to estimate the performance of said rotary machines at a time neighborhood of said first operating instant, said time neighborhood comprising operating instants preceding and following said first operating instant and having an extension selected depending on the application; and - providing an optimization cost function indicative of the objective performance for said rotary machines, said optimization cost function being set on the base of said first and second data (D1, D2) and said first estimated performance parameters (αi); and - providing an optimization problem on the base of said first, second data and third data (D1, D2, D3), said first estimated performance parameters (αi) and said optimization cost function; and - providing output data (DOUT) indicative of a load distribution among said rotary machines by solving said optimization problem. - obtaining first data indicative of the operating status of said machine station and of said rotary machines at a first operating instant, second data indicative of the operating set-points established for said machine station and for said rotary machines at said first operating instant and third data indicative of the operating limits established for said machine station and for said rotary machines at said first operating instant; and - determining one or more first estimated performance parameters (αi) to estimate the performance of said rotary machines at a time neighborhood of said first operating instant, said time neighborhood comprising operating instants preceding and following said first operating instant and having an extension selected depending on the application; and - providing an optimization cost function indicative of the objective performance for said rotary machines, said optimization cost function being set on the base of said first and second data (D1, D2) and said first estimated performance parameters (αi); and - providing an optimization problem on the base of said first, second data and third data (D1, D2, D3), said first estimated performance parameters (αi) and said optimization cost function; and - providing output data (DOUT) indicative of a load distribution among said rotary machines by solving said optimization problem.
A watercraft having a first shaped charge, wherein a second shaped charge is arranged behind the first shaped charge in the effective direction of the first shaped charge, wherein the effective direction of the first shaped charge and the effective direction of the second shaped charge run to a common target point, characterized in that at least one of the two shaped charges (21, 22) is arranged to be movable, wherein the watercraft has a distance sensor and an electronic evaluation and control system, wherein the distance sensor is designed to detect the distance between the watercraft and an object arranged in front of the watercraft, wherein the electronic evaluation and control system is designed to process the distance detected by the distance sensor, wherein the electronic evaluation and control system is designed to move at least one of the two shaped charges (21, 22), depending on the distance detected.
A telehandler, comprising a chassis section, a boom assembly supported on the chassis section and capable of being fitted with a liftable attachment, and a control unit, including chassis control means for controlling the chassis section and/or boom assembly control means for controlling the boom assembly, which boom assembly comprises a jib, which liftable attachment is a lifting fork, and which control unit is adapted to be operated from outside the unmanned telehandler, characterized in that the boom assembly enables to releasably attach a man basket to the lifting fork and a connection unit of the jib enables to electrically connect the man basket to the control unit.
Method for the optical detection of an edge in or on an object surface region of an object with the following steps: illuminating the object surface region with a first group of light sources or from a first illumination direction and recording a first sequence with multiple camera images of the object surface region with respectively different illumination intensities, recording at least one further sequence (S2 to Sn) with multiple camera images of the object surface region with respectively different illumination intensities, wherein in the case of all sequences (S1 to Sn) the object surface region is respectively illuminated with another group of light sources or respectively from another illumination direction, respectively forming a locally resolved reflectance image (R1 to Rn) for each of the sequences (S1 to Sn) from at least some of the camera images of the respective sequence (S1 to Sn), wherein for each pixel a curve (V1 to Vk) of a light quantity magnitude is determined in dependence on the illumination intensity, wherein the light quantity magnitude describes the light quantity received by a camera for the respectively associated pixel (P1 to Pk), and using at least one of the reflectance images (R1 to Rn) to detect at least one edge in or on the object surface region. illuminating the object surface region with a first group of light sources or from a first illumination direction and recording a first sequence with multiple camera images of the object surface region with respectively different illumination intensities, recording at least one further sequence (S2 to Sn) with multiple camera images of the object surface region with respectively different illumination intensities, wherein in the case of all sequences (S1 to Sn) the object surface region is respectively illuminated with another group of light sources or respectively from another illumination direction, respectively forming a locally resolved reflectance image (R1 to Rn) for each of the sequences (S1 to Sn) from at least some of the camera images of the respective sequence (S1 to Sn), wherein for each pixel a curve (V1 to Vk) of a light quantity magnitude is determined in dependence on the illumination intensity, wherein the light quantity magnitude describes the light quantity received by a camera for the respectively associated pixel (P1 to Pk), and using at least one of the reflectance images (R1 to Rn) to detect at least one edge in or on the object surface region.
Valve having a housing, a solenoid arranged in the housing, a pin movable by the solenoid, a pot-shaped piston connected to the pin, and a seal arranged between the housing and the piston, wherein the piston has, at least in the region of its open end, a radially peripheral seal that bears against a second housing part when the valve is closed, said second housing part being connected to the housing, characterized in that the seal is composed of a rubber, preferably a fluoro rubber, the piston is composed of metal, preferably of a high-grade steel, in particular a chromium-nickel steel, the piston has a further seal on the outside in the region of its base, and the seal and the further seal are connected integrally to one another in the region of the open end and in the base region, respectively.
A system for closed transfer of fluids comprising: a syringe adapter comprising: a housing having a first end and a second end, the first end configured to be secured to a syringe; a cannula having a first end and a second end, the second end positioned within the housing; a seal arrangement positioned within the housing and movable within the housing, the seal arrangement comprising a seal membrane; and a second component comprising a second component membrane and a locking mechanism, the second component configured to be received by the syringe adapter such that the seal membrane of the seal arrangement engages the second component membrane of the second component, characterized in that the locking mechanism comprises a biasing member and an engagement member positioned on the biasing member, the engagement member configured to engage a portion of the housing of the syringe adapter to secure the second component to the syringe adapter when the second component is received by the syringe adapter. a syringe adapter comprising: a housing having a first end and a second end, the first end configured to be secured to a syringe; a cannula having a first end and a second end, the second end positioned within the housing; a seal arrangement positioned within the housing and movable within the housing, the seal arrangement comprising a seal membrane; and a housing having a first end and a second end, the first end configured to be secured to a syringe; a cannula having a first end and a second end, the second end positioned within the housing; a seal arrangement positioned within the housing and movable within the housing, the seal arrangement comprising a seal membrane; and a second component comprising a second component membrane and a locking mechanism, the second component configured to be received by the syringe adapter such that the seal membrane of the seal arrangement engages the second component membrane of the second component, characterized in that the locking mechanism comprises a biasing member and an engagement member positioned on the biasing member, the engagement member configured to engage a portion of the housing of the syringe adapter to secure the second component to the syringe adapter when the second component is received by the syringe adapter.
A method comprising, at a first transceiver device: wirelessly transmitting from said first transceiver device to a second transceiver device a fine timing measurement request frame comprising one or more values defining a minimum time between transmission of consecutive fine timing measurement frames by said second transceiver device; and wirelessly receiving, from said second transceiver device, one or more fine timing measurement frames based, at least in part, on said one or more values, wherein said fine timing measurement request frame and said one or more fine timing measurement frames are transmitted according to one or more versions of IEEE std. 802.11. wirelessly transmitting from said first transceiver device to a second transceiver device a fine timing measurement request frame comprising one or more values defining a minimum time between transmission of consecutive fine timing measurement frames by said second transceiver device; and wirelessly receiving, from said second transceiver device, one or more fine timing measurement frames based, at least in part, on said one or more values, wherein said fine timing measurement request frame and said one or more fine timing measurement frames are transmitted according to one or more versions of IEEE std. 802.11.
A control method for an electrical braking system for aircraft comprising a plurality of electromechanical actuators capable of applying a braking force on friction members, each electromechanical actuator comprising an electric motor equipped with one or more windings, the braking system further comprising at least one power module configured to send to each electric motor winding a phase current (I PH) and at least one control module configured to control, in response to a braking setpoint, the sending by the power module of a setpoint phase current determined depending on the braking force to be applied, characterized in that the method comprises the variation of the phase current transmitted to each winding of the electric motor so as to cause said phase current to oscillate around the setpoint phase current.
A composition comprising i) Riboflavin (vitamin B2) and Biotin (vitamin B7); ii) cysteine; iii) lysine; iv) procyanidin B-2; v) mangosteen extract; vi) methionine; and vii) collagen; viii) ascorbic acid; ix) alpha-tocopheryl acetate; x) zinc gluconate; xi) ferrous fumarate; xii) copper gluconate; xiii) beta-carotene; xiv) thiamine hydrochloride; xv) nicotinamide; xvi) D-calcium pantothenate; xvii) pyridoxine hydrochloride; xviii) cyanocobalamin; xix) folic acid; xx) L-selenmethionine; and xxi) magnesium hydroxide carbonate; or any pharmaceutically acceptable salts or esters thereof; wherein the lysine is present in an amount of 5-12 wt% based on the total weight of the composition; wherein the procyanidin B-2 is present in an amount of 0.5-15 wt% based on the total weight of the composition; wherein the methionine is present in an amount of 0.2-3.0 wt% based on the total weight of the composition. i) Riboflavin (vitamin B2) and Biotin (vitamin B7); ii) cysteine; iii) lysine; iv) procyanidin B-2; v) mangosteen extract; vi) methionine; and vii) collagen; viii) ascorbic acid; ix) alpha-tocopheryl acetate; x) zinc gluconate; xi) ferrous fumarate; xii) copper gluconate; xiii) beta-carotene; xiv) thiamine hydrochloride; xv) nicotinamide; xvi) D-calcium pantothenate; xvii) pyridoxine hydrochloride; xviii) cyanocobalamin; xix) folic acid; xx) L-selenmethionine; and xxi) magnesium hydroxide carbonate; wherein the lysine is present in an amount of 5-12 wt% based on the total weight of the composition; wherein the procyanidin B-2 is present in an amount of 0.5-15 wt% based on the total weight of the composition; wherein the methionine is present in an amount of 0.2-3.0 wt% based on the total weight of the composition.
A device for introducing the free end of a wrapping material into the bale forming chamber of a round baler, comprising a pair of elongate plates (122a, 122b) that are biased towards one another to grip the wrapping material therebetween, characterised in that one of the plates having secured thereto an attachment that has a resiliently flexible leading edge that projects further than the leading edges of the pair of elongate plates (122a, 122b) in the feeding direction of the wrapping material, and in that the leading edge of the attachment is formed with forward projecting resiliently flexible fingers which are transversely spaced from one another.
A pharmaceutical dry powder composition comprising a mixture of fibrinogen-comprising microparticles and thrombin-comprising microparticles for use as a hemostat in the topical treatment of a wound with a time to hemostasis of 5 minutes or less, wherein the mixture has an X50 value between 5 and 50 microns and wherein the wound is selected from minor abrasions, cuts, scrapes, scratches, burns, sunburns, ulcers, internal venous bleeding, external venous bleeding, and surgical interventions selected from those involving the gastrointestinal system, on parenchymal organs; surgical interventions in the ear, nose and throat area cardiovascular surgery, aesthetic surgery, spinal surgery, neurological surgery; lymphatic, biliary, and cerebrospinal fistulae, air leakages during thoracic and pulmonary surgery, thoracic surgery, orthopaedic surgery; gynaecological surgical procedures; vascular surgery and emergency surgery and wherein said fibrinogen-comprising microparticles and thrombin-comprising microparticles comprise trehalose and have a residual moisture content of no greater than 8% w/w.
Drive machine for a compressor and/or a turbine, in particular of an exhaust turbocharger, which has a rotor, disposed so as to be rotationally fixed on a shaft rotatably mounted in a housing, and a stator fixed to the housing, and a power electronics unit assigned to the stator, and a cooling duct which is assigned to the power electronics unit and is able to be connected to a cooling circuit of an external cooling system, characterized in that the cooling duct is assigned at least one valve which as a function of an operating temperature of the power electronics unit is activated for releasing or closing a flow cross section of the cooling duct, wherein the valve is disposed in the cooling duct so as to be downstream or upstream of the power electronics unit.