mhurhangee/patent-ind-claim-en huggingface dataset:
Air vent for a vehicle, comprising a housing with an air inlet , an air outlet and an air channel between the air inlet and the air outlet , at least one rigid air directing body , in particular a single rigid air directing body , arranged within the air channel , and an actuator arranged within the housing in order to act on the rigid air-directing body to determine the direction of an air stream exiting the air outlet , wherein the rigid air-directing body is pivotably arranged within the housing by being affixed to a first axis , the actuator is pivotably arranged within the housing by being affixed to a second axis , the first axis and the second axis run parallel to each other, and the actuator comprises a shape memory alloy element , characterized in that the actuator further comprises a transmission element affixed to the second axis and pivotable around the second axis by the shape memory alloy element , wherein the transmission element comprises a convex surface engaging with a complementary concave surface of the rigid air-directing body , with the concave surface being spaced apart from the first axis and facing in the direction of the air inlet , and the convex surface being spaced apart from the second axis and facing in the direction of the air outlet . a housing with an air inlet , an air outlet and an air channel between the air inlet and the air outlet , at least one rigid air directing body , in particular a single rigid air directing body , arranged within the air channel , and an actuator arranged within the housing in order to act on the rigid air-directing body to determine the direction of an air stream exiting the air outlet , wherein the rigid air-directing body is pivotably arranged within the housing by being affixed to a first axis , the actuator is pivotably arranged within the housing by being affixed to a second axis , the first axis and the second axis run parallel to each other, and the actuator comprises a shape memory alloy element , characterized in that the actuator further comprises a transmission element affixed to the second axis and pivotable around the second axis by the shape memory alloy element , wherein the transmission element comprises a convex surface engaging with a complementary concave surface of the rigid air-directing body , with the concave surface being spaced apart from the first axis and facing in the direction of the air inlet , and the convex surface being spaced apart from the second axis and facing in the direction of the air outlet .
Fastener adapted be joined to a workpiece, having: - a shaft-shaped anchor section that extends along an anchor axis (Xa) between a first and a second end portion, and - a flange section running transversely thereto, wherein the flange section is formed on the first end portion of the anchor section , wherein the flange section at least partially forms an application section, - a joining material , wherein the joining material is pre-applied to the application section , wherein the joining material at least partially lies on the application section in the solid state, wherein the joining material has a first adhesive material and a second different adhesive material , wherein the first adhesive material is in a solid state, characterized in that the first adhesive material completely covers the second adhesive material and the first adhesive material and the second adhesive material are separated by a separating layer , wherein the separating layer is a silicate layer. - a shaft-shaped anchor section that extends along an anchor axis (Xa) between a first and a second end portion, and - a flange section running transversely thereto, wherein the flange section is formed on the first end portion of the anchor section , wherein the flange section at least partially forms an application section, - a joining material , wherein the joining material is pre-applied to the application section , wherein the joining material at least partially lies on the application section in the solid state,
A method for manufacturing a glass tube that includes an opening in a first end and an opening in a second end , the method comprising the steps of: forming a through hole in a tube wall of the glass tube near the first end ; and forming a sealed portion by performing thermal processing on a predetermined portion of the glass tube between the first end and the through hole after the formation of the through hole characterised in that the formation of the through hole is performed while sending air into the glass tube from the opening in the second end of the glass tube toward the opening in the first end of the glass tube . forming a through hole in a tube wall of the glass tube near the first end ; and forming a sealed portion by performing thermal processing on a predetermined portion of the glass tube between the first end and the through hole after the formation of the through hole characterised in that the formation of the through hole is performed while sending air into the glass tube from the opening in the second end of the glass tube toward the opening in the first end of the glass tube .
Valve assembly for an outward opening injection valve , the valve assembly comprising - a valve body which has a central longitudinal axis (L) and comprises a cavity , the cavity comprising a lower cavity portion and, adjacent to the lower cavity portion , a fluid outlet portion with a seal seat , and - a valve needle which is arranged axially movable in the cavity and which is configured to prevent a fluid flow through the fluid outlet portion in a closing position in coaction with the seal seat and is displaceable in axial direction from the lower cavity portion towards the seal seat for releasing the fluid flow through the fluid outlet portion , wherein the valve assembly comprises two or more flow passages , wherein - the valve assembly comprises a throttling element which is one part of the valve needle or fixedly connected to the valve needle and is arranged in the lower cavity portion of the cavity and axially spaced apart from the seal seat and, characterized in that - the flow passages penetrate the throttling element and are unevenly distributed around the longitudinal axis (L), and wherein at least two circumferentially subsequent flow passages have different cross-sectional areas, and wherein the throttling element is configured for guiding the valve needle in axial direction. - a valve body which has a central longitudinal axis (L) and comprises a cavity , the cavity comprising a lower cavity portion and, adjacent to the lower cavity portion , a fluid outlet portion with a seal seat , and - a valve needle which is arranged axially movable in the cavity and which is configured to prevent a fluid flow through the fluid outlet portion in a closing position in coaction with the seal seat and is displaceable in axial direction from the lower cavity portion towards the seal seat for releasing the fluid flow through the fluid outlet portion , - the valve assembly comprises a throttling element which is one part of the valve needle or fixedly connected to the valve needle and is arranged in the lower cavity portion of the cavity and axially spaced apart from the seal seat and, characterized in that - the flow passages penetrate the throttling element and are unevenly distributed around the longitudinal axis (L), and wherein
A system for providing mechanical ventilation to a patient, the system comprising: a mechanical ventilator configured for pneumatic connection to a patient in order to deliver medical gas to the patient; at least one physiological sensor that measures at least one physiological value; a peripheral system configured to provide medical assistance to the patient and the peripheral system produces a signal indicative of the operation of the peripheral system; a processor communicatively connected to the mechanical ventilator , the physiological sensor, and the peripheral system, the processor further communicatively connected to a computer readable medium configured with computer readable code that upon execution by the processor, causes the processor to: receive the signal from the peripheral system; calculate a first score from the signal; receive the physiological value from the physiological sensor; calculate a second score from the physiological value; aggregate the first score and the second score into a derecruitment score; compare the derecruitment score to a predetermined threshold; and if the derecruitment score exceeds the predetermined threshold, operate the mechanical ventilator to provide a recruitment procedure to the patient. a mechanical ventilator configured for pneumatic connection to a patient in order to deliver medical gas to the patient; at least one physiological sensor that measures at least one physiological value; a peripheral system configured to provide medical assistance to the patient and the peripheral system produces a signal indicative of the operation of the peripheral system; a processor communicatively connected to the mechanical ventilator , the physiological sensor, and the peripheral system, the processor further communicatively connected to a computer readable medium configured with computer readable code that upon execution by the processor, causes the processor to: receive the signal from the peripheral system; calculate a first score from the signal; receive the physiological value from the physiological sensor; calculate a second score from the physiological value; aggregate the first score and the second score into a derecruitment score; compare the derecruitment score to a predetermined threshold; and if the derecruitment score exceeds the predetermined threshold, operate the mechanical ventilator to provide a recruitment procedure to the patient. receive the signal from the peripheral system; calculate a first score from the signal; receive the physiological value from the physiological sensor; calculate a second score from the physiological value; aggregate the first score and the second score into a derecruitment score; compare the derecruitment score to a predetermined threshold; and if the derecruitment score exceeds the predetermined threshold, operate the mechanical ventilator to provide a recruitment procedure to the patient.
Wind turbine comprising a hub connected to a rotatable shaft extending in an axial direction and at least one bearing supporting the shaft against a housing , wherein the housing comprises an electrically conductive cage section , which surrounds at least partially an axial segment of the shaft , characterized in that the cage section is connected to the shaft by at least one first conduction means and at least one second conduction means , wherein the at least one first conduction means and the at least one second conduction means are arranged spaced both from each other in the axial direction, wherein the at least one bearing is arranged between the segment of the shaft and the cage section of the housing at an axial position in between the at least one first conduction means and the at least one second conduction means .
A first device in a wireless communication system, the first device comprising: a processor configured to: identify a first ranging request measurement and control information element, RRMC IE, with a reply-time request; and a transceiver operably connected to the processor, the transceiver configured to: transmit, to a plurality of second devices, a first data including the first RRMC IE, receive, from at least one of the plurality of the second devices, a second data including a ranging reply time instantaneous IE, RRTI IE, and a second RRMC IE, the processor is further configured to identify a receiving time of the second data, wherein the first RRMC IE includes a reply time request field, a round-trip measurement request field, a time-of-flight, ToF, request field, an angle of arrival, AOA, Azimuth request field, an AoA elevation request field, a ranging control information field, a reserved bit field, an RRMC table length field, and an RRMC table field. identify a first ranging request measurement and control information element, RRMC IE, with a reply-time request; and a transceiver operably connected to the processor, the transceiver configured to: transmit, to a plurality of second devices, a first data including the first RRMC IE, receive, from at least one of the plurality of the second devices, a second data including a ranging reply time instantaneous IE, RRTI IE, and a second RRMC IE, transmit, to a plurality of second devices, a first data including the first RRMC IE, receive, from at least one of the plurality of the second devices, a second data including a ranging reply time instantaneous IE, RRTI IE, and a second RRMC IE, the processor is further configured to identify a receiving time of the second data, wherein the first RRMC IE includes a reply time request field, a round-trip measurement request field, a time-of-flight, ToF, request field, an angle of arrival, AOA, Azimuth request field, an AoA elevation request field, a ranging control information field, a reserved bit field, an RRMC table length field, and an RRMC table field.
A laminate suitable for use as a shell for flexible, fillable prosthesis, said laminate comprising: a base layer having a thickness of about 0.15 mm (0.006 inches); a top layer having a thickness of about 0.15 mm (0.006 inches); characterized in that the laminate is further provided with an intermediate layer disposed between the base layer and the top layer, the intermediate layer being a silicone elastomer of sufficient thickness for self-sealing of a needle hole therethrough, wherein the intermediate layer has a thickness of between about 2.54 mm (0.100 inches) and 3.05 mm (0.120 inches) and comprises a material with a storage modulus at 0.1, 1 and 10 Hz of about 4490, about 8330 and about 18800 Pa, respectively; a total thickness of the base layer, intermediate layer and top layer enabling an internal chamber pressure of about 17236.89 Pa (2.5 psi) with an expander exterior compressive force of about 177.93 N (40 lbs). a base layer having a thickness of about 0.15 mm (0.006 inches); a top layer having a thickness of about 0.15 mm (0.006 inches); characterized in that the laminate is further provided with an intermediate layer disposed between the base layer and the top layer, the intermediate layer being a silicone elastomer of sufficient thickness for self-sealing of a needle hole therethrough, wherein the intermediate layer has a thickness of between about 2.54 mm (0.100 inches) and 3.05 mm (0.120 inches) and comprises a material with a storage modulus at 0.1, 1 and 10 Hz of about 4490, about 8330 and about 18800 Pa, respectively; a total thickness of the base layer, intermediate layer and top layer enabling an internal chamber pressure of about 17236.89 Pa (2.5 psi) with an expander exterior compressive force of about 177.93 N (40 lbs).
A method of manufacturing a tracheal intubation medical device, comprising the following steps: (a) providing at least one insert 20 and a first sheath 24 for the at least one insert 20, the first sheath 24 including an inner sheath body and one or more sheath projections 26, wherein the at least one insert 20 is malleable, (b) providing a second injection moulding tool having a second mould chamber, (c) locating the at least one insert 20 and the first sheath 24 within the second mould chamber, such that the at least one insert 20 and the first sheath 24 are supported within the second mould chamber by the one or more sheath projections 26, and (d) injection moulding a second sheath 28 about the inner sheath body and the at least one insert 20, between the one or more sheath projections 26. (a) providing at least one insert 20 and a first sheath 24 for the at least one insert 20, the first sheath 24 including an inner sheath body and one or more sheath projections 26, wherein the at least one insert 20 is malleable, (b) providing a second injection moulding tool having a second mould chamber, (c) locating the at least one insert 20 and the first sheath 24 within the second mould chamber, such that the at least one insert 20 and the first sheath 24 are supported within the second mould chamber by the one or more sheath projections 26, and (d) injection moulding a second sheath 28 about the inner sheath body and the at least one insert 20, between the one or more sheath projections 26.
A system, comprising: a processor having addressable memory, the processor configured to: determine an unmanned aerial vehicle, UAV , flight path , wherein the UAV flight path is a raster grid flight path downwind of a methane source and wherein the UAV flight path forms a flight plane substantially perpendicular to a ground surface and an average wind direction; generate a UAV data packet , wherein the UAV data packet comprises methane concentration data and UAV information from the UAV flight path ; receive at least one Meteorological data packet , wherein the Meteorological data packet comprises weather data; combine the UAV data packet with a nearest temporal Meteorological data packet; and determine a methane emission rate of the methane source based on the combined UAV data packet and the nearest Meteorological data packet. determine an unmanned aerial vehicle, UAV , flight path , wherein the UAV flight path is a raster grid flight path downwind of a methane source and wherein the UAV flight path forms a flight plane substantially perpendicular to a ground surface and an average wind direction; generate a UAV data packet , wherein the UAV data packet comprises methane concentration data and UAV information from the UAV flight path ; receive at least one Meteorological data packet , wherein the Meteorological data packet comprises weather data; combine the UAV data packet with a nearest temporal Meteorological data packet; and determine a methane emission rate of the methane source based on the combined UAV data packet and the nearest Meteorological data packet.
A radome system comprising: an antenna , said antenna operating within a predetermined frequency band; and a radome defining an enclosed volume , wherein said antenna is housed within said enclosed volume , said radome comprising a layered structure having an external surface and an internal surface , said layered structure comprising: an external structural layer proximate said external surface ; and a core layer below said external structural layer , said core layer comprising a plurality of Faraday cage layers alternating with a plurality of artificial dielectric layers . an antenna , said antenna operating within a predetermined frequency band; and a radome defining an enclosed volume , wherein said antenna is housed within said enclosed volume , said radome comprising a layered structure having an external surface and an internal surface , said layered structure comprising: an external structural layer proximate said external surface ; and a core layer below said external structural layer , said core layer comprising a plurality of Faraday cage layers alternating with a plurality of artificial dielectric layers . an external structural layer proximate said external surface ; and a core layer below said external structural layer , said core layer comprising a plurality of Faraday cage layers alternating with a plurality of artificial dielectric layers .
Device for actuating personal protection means in a vehicle having at least one sensor unit which detects at least one physical variable, and an evaluation and control unit which generates at least one impact-characterizing signal profile (Acc) from the at least one detected physical variable, wherein the evaluation and control unit determines at least one time phase (P1, P2) as a function of an energy reduction behaviour of the vehicle in the generated signal profile (K1, K4 to K10), and evaluates said time phase (P1, P2) in order to classify the crash and to decide about the triggering for personal protection means , wherein the evaluation and control unit determines at least a first characteristic time (tp) in the signal profile (K1, K4 to K10) which represents the end of a first time phase (P1), and calculates at least one feature (a max , a min , A, A1, A2, Dv1, Dv2, tp-t1, t2-t1, G) of the energy reduction retroactively starting from the at least one first characteristic time (tp), wherein the evaluation and control unit carries out the classification of the crash and the decision about triggering for personal protection means as a function of the at least one retroactively calculated feature (a max , a min , A, A1, A2, Dv1, Dv2, tp-t1, t2-t1, G), characterized in that the feature of the energy reduction is a dip in relation to the calculated local maximum force level (a max ).
A method of wireless communication, performed by a first wireless communication device, comprising: receiving , by the first wireless communication device from a second wireless communication device, a preemption indication for reallocating a resource allocated for sidelink communication between the first wireless communication device and a third wireless communication device; determining a priority of the resource; and preventing use of the resource for the sidelink communication based on the priority and the preemption indication. receiving , by the first wireless communication device from a second wireless communication device, a preemption indication for reallocating a resource allocated for sidelink communication between the first wireless communication device and a third wireless communication device; determining a priority of the resource; and preventing use of the resource for the sidelink communication based on the priority and the preemption indication.
Door arrangement for a wind turbine , constituting an entrance door of the wind turbine and comprising a door with an outer side and an inner side and a door locking device for locking and unlocking the closed door by coupling and decoupling the closed door with a stationary component of the door arrangement of the wind turbine , wherein the door locking device comprises a central component , an attaching means and a connecting means , wherein the central component is attached to the stationary component by the attaching means and connectable and disconnectable with the door by the connecting means for locking and unlocking the door by a person being at the outer side , wherein the attaching means is manually releasable by a person being at the inner side for disconnecting the central component from the stationary component to unlock the door without tools.