mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid control device comprising: a housing having an inlet fluidically coupleable to a patient and an outlet fluidically coupleable to a fluid collection device , the housing defining at least a portion of each of a first channel and a second channel between the inlet and the outlet ; a selectively permeable blood barrier, the blood barrier disposed in the housing between the first channel and the outlet ; and a moveable plug disposed in the housing and configured to obstruct a flow path between the inlet and the outlet via the second channel when in first position, the blood barrier configured to allow a gas to flow through the blood barrier in response to a pressure differential between the inlet and the outlet , thereby allowing a volume of blood to flow into the first channel , the moveable plug configured to move from the first position to a second position in response to an increase in a pressure differential between the moveable plug and the outlet as a result of the volume of blood in the first channel such that a subsequent volume of blood is drawn from the inlet through the second channel and to the outlet . a housing having an inlet fluidically coupleable to a patient and an outlet fluidically coupleable to a fluid collection device , the housing defining at least a portion of each of a first channel and a second channel between the inlet and the outlet ; a selectively permeable blood barrier, the blood barrier disposed in the housing between the first channel and the outlet ; and a moveable plug disposed in the housing and configured to obstruct a flow path between the inlet and the outlet via the second channel when in first position, the blood barrier configured to allow a gas to flow through the blood barrier in response to a pressure differential between the inlet and the outlet , thereby allowing a volume of blood to flow into the first channel , the moveable plug configured to move from the first position to a second position in response to an increase in a pressure differential between the moveable plug and the outlet as a result of the volume of blood in the first channel such that a subsequent volume of blood is drawn from the inlet through the second channel and to the outlet .
Aircraft stairs with wheels as well as a steering device, wherein the aircraft stairs comprises at least one wheel without a drive, wherein two of the wheels are drivable and rigid in their orientation, and wherein a controllable drive device is provided which cooperates with the two driven wheels characterised in that in that each driven wheel is assigned its own drive or a common drive is provided which is designed to drive the driven wheels individually, and in that the driven wheels together form the steering device, the wheels being designed to be freely rotatable without drive.
A reduced pressure therapy system, comprising: a suction device comprising a suction chamber with an inlet opening and a slidable seal therein; a expandable fluid absorbent material located within the suction chamber ; and a screen configured to block displacement of the expandable fluid absorbent material out of the suction device; characterized in that the expandable fluid absorbent material, prior to any fluid absorption, has a fixed location in the suction chamber that is independent of suction device orientation; and the expandable fluid absorbent material is retained by a carrier structure and the expandable fluid absorbent material is releasably contained within the carrier structure. a suction device comprising a suction chamber with an inlet opening and a slidable seal therein; a expandable fluid absorbent material located within the suction chamber ; and a screen configured to block displacement of the expandable fluid absorbent material out of the suction device; characterized in that the expandable fluid absorbent material, prior to any fluid absorption, has a fixed location in the suction chamber that is independent of suction device orientation; and the expandable fluid absorbent material is retained by a carrier structure and the expandable fluid absorbent material is releasably contained within the carrier structure.
Method for the particularly automated detection of shoot axes , in particular for weed control, wherein an obstacle , for example a thin rod, is moved by a vehicle, in particular by an autonomous robot vehicle, preferably transversely and preferably parallel to the ground level over an area covered with plants, wherein the height of the obstacle above the ground level is selected such that when driving in the detection direction , for example in the forward direction, the shoot axes of the plants with their leaves are bent in the detection direction , for example forwards, and a sensor device detects an area around the obstacle from a preferably elevated position.
Layered material with four or more layers with the following order: - textile support layer; - foamed layer A; - non-foamed top layer; and - varnish layer; wherein layer A comprises: - 0-35 weight percent polyethylene as the first polymer, - 30-80 weight percent ethylene propylene diene monomer (EPDM) as the second polymer; - 10-40 weight percent filler, wherein the organic component of layer A has a bio-based carbon content (BBC) of at least 50% as determined by ASTM D6866-16 Method B (AMS); and wherein the layered material has a thickness of up to 4 cm. - textile support layer; - foamed layer A; - non-foamed top layer; and - varnish layer; wherein - 0-35 weight percent polyethylene as the first polymer, - 30-80 weight percent ethylene propylene diene monomer (EPDM) as the second polymer; - 10-40 weight percent filler, wherein the organic component of layer A has a bio-based carbon content (BBC) of at least 50% as determined by ASTM D6866-16 Method B (AMS); and wherein the layered material has a thickness of up to 4 cm.
Connection method by means of a welding auxiliary joining part for at least a first component (20; 22) without pre-punching the at least one first component (20; 22) consisting of a non-weldable or electrically non-conductive material with at least a second component of weldable or electrically conductive material or having a section of weldable or electrically conductive material, wherein the method comprises the following steps: a. driving in of the welding auxiliary joining part by means of an electrode punch into the at least one first component by means of a combined mechanical-thermal load of at least the welding auxiliary joining part , wherein the welding auxiliary joining part is guided via an electrode blank holder and the electrode punch and the electrode blank holder have different electrical polarities, so that a current flows between the electrode punch and electrode blank holder via the welding auxiliary joining part , which heats at least the welding auxiliary joining part , b. deforming the welding auxiliary joining part under combined mechanical-thermal load on the at least one second component and c. welding of the welding auxiliary joining part to the at least one second component so that the at least one first component and the at least one second component are connected to each other by means of the welding auxiliary joining part , wherein d. the connection method takes place continuously in a mechanical-thermal setting-welding-process. a. driving in of the welding auxiliary joining part by means of an electrode punch into the at least one first component by means of a combined mechanical-thermal load of at least the welding auxiliary joining part , wherein the welding auxiliary joining part is guided via an electrode blank holder and the electrode punch and the electrode blank holder have different electrical polarities, so that a current flows between the electrode punch and electrode blank holder via the welding auxiliary joining part , which heats at least the welding auxiliary joining part , b. deforming the welding auxiliary joining part under combined mechanical-thermal load on the at least one second component and c. welding of the welding auxiliary joining part to the at least one second component so that the at least one first component and the at least one second component are connected to each other by means of the welding auxiliary joining part , wherein d. the connection method takes place continuously in a mechanical-thermal setting-welding-process.
A cooking apparatuses system comprising: a first cooking apparatus having a user interface configured to receive a user command from a user; and a second cooking apparatus separated from the first cooking apparatus and configured to receive the user command input at the user interface of the first cooking apparatus and operate according to the user command, wherein the user interface receives one or more of a user command related to the first cooking apparatus and a user command related to the second cooking apparatus , wherein the first cooking apparatus includes a first communicator , wherein the second cooking apparatus includes a second communicator configured to communicate with the first communicator , wherein the user interface includes a first inputter configured to receive the user command related to the first cooking apparatus and a second inputter configured to receive the user command related to the second cooking apparatus , characterized in that the first inputter and the second inputter are realized using the same inputting device that selectively serves as the first inputter or the second inputter depending on a user manipulation. a first cooking apparatus having a user interface configured to receive a user command from a user; and a second cooking apparatus separated from the first cooking apparatus and configured to receive the user command input at the user interface of the first cooking apparatus and operate according to the user command, wherein the user interface receives one or more of a user command related to the first cooking apparatus and a user command related to the second cooking apparatus , wherein the first cooking apparatus includes a first communicator , wherein the second cooking apparatus includes a second communicator configured to communicate with the first communicator , wherein the user interface includes a first inputter configured to receive the user command related to the first cooking apparatus and a second inputter configured to receive the user command related to the second cooking apparatus , characterized in that the first inputter and the second inputter are realized using the same inputting device that selectively serves as the first inputter or the second inputter depending on a user manipulation.
A radiofrequency surface coil for magnetic resonance, wherein the radiofrequency surface coil is arranged to transmit and/or receive an oscillating magnetic field, the radiofrequency surface coil comprising: a continuous conducting path comprising a plurality of conducting elements , the continuous conducting path being conducting to an applied or induced radiofrequency alternating current, wherein each conducting element (2, 22, 32, 502, 602 702) is connected to another of the conducting elements so as to form the continuous conducting path, and each conducting element defines an area bounded by the conducting element ; wherein each conducting element at least partially surrounds the area it bounds and the remainder of the area is bounded by a geodesic line extending between the ends of the conducting element ; characterised in that the plurality of conducting elements are arranged in substantially parallel surfaces such that the area bounded by each conducting element overlaps with at least 20% of the area bounded by another of the conducting elements ; and wherein each conducting element is separated from the conducting element in the adjacent substantially parallel surface by a dielectric . a continuous conducting path comprising a plurality of conducting elements , the continuous conducting path being conducting to an applied or induced radiofrequency alternating current, wherein each conducting element (2, 22, 32, 502, 602 702) is connected to another of the conducting elements so as to form the continuous conducting path, and each conducting element defines an area bounded by the conducting element ; wherein each conducting element at least partially surrounds the area it bounds and the remainder of the area is bounded by a geodesic line extending between the ends of the conducting element ; characterised in that the plurality of conducting elements are arranged in substantially parallel surfaces such that the area bounded by each conducting element overlaps with at least 20% of the area bounded by another of the conducting elements ; and wherein each conducting element is separated from the conducting element in the adjacent substantially parallel surface by a dielectric .
A method of correcting an image obtained by an image acquisition device including: for each row of said image, obtaining one or more successive measurements, G n , of device movement during exposure of said row; selecting an integration range, idx, calculated dependent on a sampling frequency F for said measurements of device movement and an exposure time, t e , for each said row of the image as follows: idx = F ∗ t e , averaging accumulated measurements, C n , of device movement where C n = C n -1 + G n for each said row of said image across said integration range as follows: G = ( C n - C n-idx )/ idx where C n is an accumulated value corresponding to measurement G n and C n-idx is an accumulated value corresponding to measurement G n-idx at the start of said integration range to provide successive filtered measurements, G , of device movement for each said row of said image, and correcting said image for device movement using said filtered measurements G . for each row of said image, obtaining one or more successive measurements, G n , of device movement during exposure of said row; selecting an integration range, idx, calculated dependent on a sampling frequency F for said measurements of device movement and an exposure time, t e , for each said row of the image as follows: idx = F ∗ t e , averaging accumulated measurements, C n , of device movement where C n = C n -1 + G n for each said row of said image across said integration range as follows: G = ( C n - C n-idx )/ idx where C n is an accumulated value corresponding to measurement G n and C n-idx is an accumulated value corresponding to measurement G n-idx at the start of said integration range to provide successive filtered measurements, G , of device movement for each said row of said image, and correcting said image for device movement using said filtered measurements G .
A method for a user equipment device, UE, to connect to a first cell operating according to a first radio access technology, RAT, and a second cell operating according to a second RAT, the method comprising: establishing a first wireless link with a first cell according to the first RAT and a second wireless link with a second cell according to a second RAT, wherein the first cell operates in a first system bandwidth, and wherein the second cell operates in a second system bandwidth; transmitting a first indication that the UE supports uplink, UL, sharing for one or more of the first or second system bandwidths to one of the first or second cells , wherein the first and second system bandwidths are at least partially overlapping; providing, to one of the first cell or the second cell , binary information indicating one of no retuning time needed and retuning time needed; and receiving, from one or more of the first or second cells , an allocation of first uplink resources associated with the first RAT and an allocation of second uplink resources associated with the second RAT, wherein the allocations correspond to using time division multiplexing, TDM, for uplink data transmissions for the first RAT and the second RAT according to the first and second uplink resources. establishing a first wireless link with a first cell according to the first RAT and a second wireless link with a second cell according to a second RAT, wherein the first cell operates in a first system bandwidth, and wherein the second cell operates in a second system bandwidth; transmitting a first indication that the UE supports uplink, UL, sharing for one or more of the first or second system bandwidths to one of the first or second cells , wherein the first and second system bandwidths are at least partially overlapping; providing, to one of the first cell or the second cell , binary information indicating one of no retuning time needed and retuning time needed; and receiving, from one or more of the first or second cells , an allocation of first uplink resources associated with the first RAT and an allocation of second uplink resources associated with the second RAT, wherein the allocations correspond to using time division multiplexing, TDM, for uplink data transmissions for the first RAT and the second RAT according to the first and second uplink resources.
A heat exchanger comprising: first heat transfer pipes (31-36) in which a heat medium flows and which have a plurality of grooves formed in an inner surface of the first heat transfer pipes (31-36); and second heat transfer pipes having one end connected to one end of the first heat transfer pipes (31-36) to form one heat medium flow path, characterized by the second heat transfer pipes being smaller in pipe diameter than the first heat transfer pipes (31-36), and being smooth on an inner surface of the second heat transfer pipes so that the second heat transfer pipes provide a pressure loss per unit length smaller than that of the first heat transfer pipe (31-36), wherein the first heat transfer pipes (31-36) have a first number of pipes and the second heat transfer pipe have a second number of pipes, and wherein the first number of pipes is greater than the second number of pipes. first heat transfer pipes (31-36) in which a heat medium flows and which have a plurality of grooves formed in an inner surface of the first heat transfer pipes (31-36); and second heat transfer pipes having one end connected to one end of the first heat transfer pipes (31-36) to form one heat medium flow path, characterized by the second heat transfer pipes being smaller in pipe diameter than the first heat transfer pipes (31-36), and being smooth on an inner surface of the second heat transfer pipes so that the second heat transfer pipes provide a pressure loss per unit length smaller than that of the first heat transfer pipe (31-36), wherein the first heat transfer pipes (31-36) have a first number of pipes and the second heat transfer pipe have a second number of pipes, and wherein the first number of pipes is greater than the second number of pipes.
A support apparatus, comprising: a support substrate bearing a supported component , the support substrate having a first main surface facing the supported component and a second main surface positioned on a side opposite to the first main surface ; and a pressure distribution plate , arranged on the first main surface of the support substrate and positioned between the support substrate and the supported component , wherein the support substrate is provided with a first through hole running from the first main surface to the second main surface in a thickness direction of the support substrate ; the support apparatus further comprises a separation device , the separation device including a first protrusion ; and the first protrusion is configured to pass through the first through hole and jack up the pressure distribution plate so that the pressure distribution plate moves in a direction away from the support substrate and brings the supported component to be separated from the support substrate ; characterized in that : a positioning element and/or a binding element , which corresponds to the first through hole in position, is arranged on a surface of the pressure distribution plate facing the support substrate ; wherein the positioning element is designed to position the first protrusion with respect to the pressure distribution plate after the first protrusion passes through the first through hole and the binding element is designed to bind the first protrusion with the pressure distribution plate after the first protrusion passes through the first through hole , the positioning element and/or the binding element thereby preventing relative movement between the first protrusion and the pressure distribution plate . a support substrate bearing a supported component , the support substrate having a first main surface facing the supported component and a second main surface positioned on a side opposite to the first main surface ; and a pressure distribution plate , arranged on the first main surface of the support substrate and positioned between the support substrate and the supported component ,
An acoustic echo cancellation device comprising: an adder configured to generate an addition signal by adding a first input signal outputted from a first microphone and a second input signal outputted from a second microphone to each other; a first echo canceller configured to produce, using the addition signal and a reproduced signal outputted to a speaker , a first pseudo echo signal which indicates a component of the reproduced signal contained in the addition signal; a second echo canceller configured to produce, using the first input signal and the first pseudo echo signal, a second pseudo echo signal which indicates a component of the first pseudo echo signal contained in the first input signal, and to cancel an acoustic echo component of the first input signal using the produced second pseudo echo signal; and a third echo canceller configured to produce, using the second input signal and the first pseudo echo signal, a third pseudo echo signal which indicates a component of the first pseudo echo signal contained in the second input signal, and to cancel an acoustic echo component of the second input signal using the produced third pseudo echo signal. an adder configured to generate an addition signal by adding a first input signal outputted from a first microphone and a second input signal outputted from a second microphone to each other; a first echo canceller configured to produce, using the addition signal and a reproduced signal outputted to a speaker , a first pseudo echo signal which indicates a component of the reproduced signal contained in the addition signal; a second echo canceller configured to produce, using the first input signal and the first pseudo echo signal, a second pseudo echo signal which indicates a component of the first pseudo echo signal contained in the first input signal, and to cancel an acoustic echo component of the first input signal using the produced second pseudo echo signal; and a third echo canceller configured to produce, using the second input signal and the first pseudo echo signal, a third pseudo echo signal which indicates a component of the first pseudo echo signal contained in the second input signal, and to cancel an acoustic echo component of the second input signal using the produced third pseudo echo signal.
A hydraulic vibrator drive having at least two hydraulic pumps (P1, P2) and at least two hydraulic motors (M1, M2), wherein the two hydraulic motors (M1, M2) can be operated either in parallel or in series and are mechanically coupled by means of their drive shafts, characterised in that a check valve is provided between the hydraulic motors (M1, M2).