mhurhangee/patent-ind-claim-en huggingface dataset:
A dialysis fluid tubing comprising at least: - a tubing adapter connected with at least one tubing section of the dialysis fluid tubing , wherein the tubing adapter comprises at least one lock mechanism for locking its flow-through lumen, wherein the lock mechanism is a non-return valve with a predetermined opening pressure, wherein the opening pressure of the non-return valve is at least 5 hPa and/or at most 1000 hPa, - a section provided for being connected, in use, with a bag heating device, - a tubing section to be inserted, in use, into a pump for conveying the dialysis fluid within the dialysis fluid tubing , wherein the section to be connected with the bag heating device is arranged downstream of the tubing section intended for insertion into the pump , and wherein the tubing adapter is arranged downstream of the section intended for connection with the bag heating device. - a tubing adapter connected with at least one tubing section of the dialysis fluid tubing , wherein the tubing adapter comprises at least one lock mechanism for locking its flow-through lumen, wherein the lock mechanism is a non-return valve with a predetermined opening pressure, wherein the opening pressure of the non-return valve is at least 5 hPa and/or at most 1000 hPa, wherein the tubing adapter comprises at least one lock mechanism for locking its flow-through lumen, wherein the lock mechanism is a non-return valve with a predetermined opening pressure, wherein the opening pressure of the non-return valve is at least 5 hPa and/or at most 1000 hPa, - a section provided for being connected, in use, with a bag heating device, - a tubing section to be inserted, in use, into a pump for conveying the dialysis fluid within the dialysis fluid tubing , wherein the section to be connected with the bag heating device is arranged downstream of the tubing section intended for insertion into the pump , and wherein the tubing adapter is arranged downstream of the section intended for connection with the bag heating device. wherein the section to be connected with the bag heating device is arranged downstream of the tubing section intended for insertion into the pump , and wherein the tubing adapter is arranged downstream of the section intended for connection with the bag heating device.
Baling press for agricultural crops with a compressing channel and at least one binding apparatus for a strip-shaped binding material , preferably made of a weldable or bondable plastic material, for wrapping the bale that is to be pressed, the binding apparatus comprising an integral bond generator which integrally bonds the binding material , and comprising at least one strip guiding element arranged on a side of the strip-shaped binding material facing away from the compressing channel and fixedly opposite the compressing channel , which in the direction of the longitudinal central axis of the compressing channel is spaced away from the integral bond generator and which has guide shoulders limiting the position of the section of the binding material opposite the strip guiding element in a transverse direction, which is parallel to the longitudinal side of the binding material cross section, characterised in that the strip guiding element is adjustable such that the angle between the binding material running substantially in a straight line between the integral bond generator and the strip guiding element and the longitudinal central axis of the compressing channel can be changed.
A method of fabricating an embedded fuse , the method comprising: forming a non-planar length of sacrificial material embedded within a surrounding dielectric material over a substrate , the non-planar length having a low-z portion between two high-z portions , the high-z portions extending to a greater z-height from the substrate than does the low-z portion ; depositing a first dielectric material over the non-planar length; planarizing the first dielectric material with the high-z portions ; laterally undercutting a region of the first dielectric material disposed over the substrate by etching the sacrificial material selectively from the first dielectric material ; lining the undercut region with a second dielectric material ; and forming a fuse line with a pair of opposite fuse ends by backfilling the lined undercut region with a conductive material. forming a non-planar length of sacrificial material embedded within a surrounding dielectric material over a substrate , the non-planar length having a low-z portion between two high-z portions , the high-z portions extending to a greater z-height from the substrate than does the low-z portion ; depositing a first dielectric material over the non-planar length; planarizing the first dielectric material with the high-z portions ; laterally undercutting a region of the first dielectric material disposed over the substrate by etching the sacrificial material selectively from the first dielectric material ; lining the undercut region with a second dielectric material ; and forming a fuse line with a pair of opposite fuse ends by backfilling the lined undercut region with a conductive material.
Mobile irradiation platform , comprising: a chassis ; one or more irradiation devices that are integrated in the chassis , are configured so as to emit radiation energy, and comprise a radiation direction that is radial with respect to a longitudinal extent of the irradiation platform ; and a plurality of stabilization booms , which are coupled to the chassis and are designed so as to support the chassis centrally in the interior of a hollow body ; characterised in that the mobile irradiation platform comprises at least one dielectric sensor , which is attached to a chassis-remote end of one of the plurality of stabilisation booms and is configured so as to detect changes in dielectric properties in the vicinity of the stabilisation boom . a chassis ; one or more irradiation devices that are integrated in the chassis , are configured so as to emit radiation energy, and comprise a radiation direction that is radial with respect to a longitudinal extent of the irradiation platform ; and a plurality of stabilization booms , which are coupled to the chassis and are designed so as to support the chassis centrally in the interior of a hollow body ; characterised in that the mobile irradiation platform comprises at least one dielectric sensor , which is attached to a chassis-remote end of one of the plurality of stabilisation booms and is configured so as to detect changes in dielectric properties in the vicinity of the stabilisation boom .
A method for a wireless transmitter , comprising: causing transmission of a frame or a subframe comprising control information on a control plane for signalling purposes and data on a user plane using orthogonal frequency division multiple access, OFDMA, wherein at least one different OFDMA parameter and/or format is applied to said control information than to said data; characterised in that the subcarrier spacing for the control information is greater than the subcarrier spacing of the data. causing transmission of a frame or a subframe comprising control information on a control plane for signalling purposes and data on a user plane using orthogonal frequency division multiple access, OFDMA, wherein at least one different OFDMA parameter and/or format is applied to said control information than to said data; characterised in that the subcarrier spacing for the control information is greater than the subcarrier spacing of the data.
A heat transfer system for cooking a food product comprising: an enclosure comprising a food product inlet , a food product outlet , and a plurality of walls; at least one conveyor extending into the enclosure from the food product inlet; a plurality of heat sources arranged about the at least one conveyor, the plurality of heat sources operate to output heat towards the at least one conveyor; a warming assembly positioned within the enclosure below the at least one conveyor, the warming assembly defining a controlled environment, the warming assembly comprising a blocking element defining the controlled environment at the food product outlet , characterised in that said controlled environment is configured to receive at least one pan through the food product outlet, the at least one pan configured to receive and store cooked food product; and in that the system further comprises a controller , the controller configured to receive a signal detecting a food product proximate the food product inlet, start a cook cycle time based upon receipt of the signal, determine that a subsequent food product is not proximate the food product inlet, and transmit a signal to at least one indicator device of the warming assembly to operate to indicate the status of the pan within a complete cook cycle. an enclosure comprising a food product inlet , a food product outlet , and a plurality of walls; at least one conveyor extending into the enclosure from the food product inlet; a plurality of heat sources arranged about the at least one conveyor, the plurality of heat sources operate to output heat towards the at least one conveyor; a warming assembly positioned within the enclosure below the at least one conveyor, the warming assembly defining a controlled environment, the warming assembly comprising a blocking element defining the controlled environment at the food product outlet , characterised in that said controlled environment is configured to receive at least one pan through the food product outlet, the at least one pan configured to receive and store cooked food product; and in that the system further comprises a controller , the controller configured to receive a signal detecting a food product proximate the food product inlet, start a cook cycle time based upon receipt of the signal, determine that a subsequent food product is not proximate the food product inlet, and transmit a signal to at least one indicator device of the warming assembly to operate to indicate the status of the pan within a complete cook cycle.
A wafer processing method, comprising: a) providing a wafer , an immersion device , a carrier and a spray device , wherein the carrier comprises a cover , a holder relatively movable of entering or leaving the cover , an elevator mechanism connected between the holder and the cover to relatively move the holder and the cover to make the holder enter or leave the cover , and a turning mechanism linked with the holder to turn the holder ; b) turning the wafer from a horizontal manner to an upright manner by the turning mechanism ; c) upright immersing the wafer in the immersion device ; d) taking the wafer out from the immersion device and placing the wafer on the holder of the carrier horizontally; e) spraying a chemical liquid on the wafer on the carrier by the spray device , wherein the step e) comprises: e1) turning the carrier by turning mechanism to turn the wafer upright and move the wafer into the spray device by the elevator mechanism ; e2) spraying the chemical liquid to the wafer in the upright manner; and e3) turning the carrier to horizontally place the wafer ; f) rinsing the wafer ; and g) rotating the carrier to dry the wafer . a) providing a wafer , an immersion device , a carrier and a spray device , wherein the carrier comprises a cover , a holder relatively movable of entering or leaving the cover , an elevator mechanism connected between the holder and the cover to relatively move the holder and the cover to make the holder enter or leave the cover , and a turning mechanism linked with the holder to turn the holder ; b) turning the wafer from a horizontal manner to an upright manner by the turning mechanism ; c) upright immersing the wafer in the immersion device ; d) taking the wafer out from the immersion device and placing the wafer on the holder of the carrier horizontally; e) spraying a chemical liquid on the wafer on the carrier by the spray device , wherein the step e) comprises: e1) turning the carrier by turning mechanism to turn the wafer upright and move the wafer into the spray device by the elevator mechanism ; e2) spraying the chemical liquid to the wafer in the upright manner; and e3) turning the carrier to horizontally place the wafer ; e1) turning the carrier by turning mechanism to turn the wafer upright and move the wafer into the spray device by the elevator mechanism ; e2) spraying the chemical liquid to the wafer in the upright manner; and e3) turning the carrier to horizontally place the wafer ; f) rinsing the wafer ; and g) rotating the carrier to dry the wafer .
A method for annotating a three-dimensional model , comprising: displaying, by a computing device , a particular view of a 3D model of a facility , the 3D model including a plurality of objects , each object associated with a respective annotation ; determining a context associated with the 3D model , wherein determining the context associated with the 3D model includes, receiving information from each of one or more subsystems of a building management system associated with the facility, and determining an abnormal status associated with each subsystem based on the received information, and wherein the determined context is associated with a subset of the plurality of objects that are currently associated with an abnormal status; and modifying the display of a subset of the plurality of annotations associated with the subset of the plurality of objects of the determined context, including dimming or making invisible an annotation of the plurality of annotations not included in the subset of the plurality of annotations associated with the respective subset of the plurality of objects of the determined context. displaying, by a computing device , a particular view of a 3D model of a facility , the 3D model including a plurality of objects , each object associated with a respective annotation ; determining a context associated with the 3D model , wherein determining the context associated with the 3D model includes, receiving information from each of one or more subsystems of a building management system associated with the facility, and determining an abnormal status associated with each subsystem based on the received information, and wherein the determined context is associated with a subset of the plurality of objects that are currently associated with an abnormal status; and modifying the display of a subset of the plurality of annotations associated with the subset of the plurality of objects of the determined context, including dimming or making invisible an annotation of the plurality of annotations not included in the subset of the plurality of annotations associated with the respective subset of the plurality of objects of the determined context.
An image pickup apparatus comprising: a tilt driving unit configured to change a tilt of at least one of an image sensor and an image pickup optical system so as to change an angle between an image pickup plane of the image sensor and a principal plane of the image pickup optical system; a focus driving unit configured to drive a focus lens of the image pickup optical system; and an area setting unit configured to set a plurality of areas in a captured image, characterized by further comprising: a defocus information detection unit configured to detect defocus information for each of the plurality of areas, using focus detection by an image pickup plane phase difference method based on an output from the image sensor, and to determine the reliability of the defocus information for each of the plurality of areas; and a control unit configured to select one control mode from a plurality of control modes based on the reliability of the defocus information for each of the plurality of areas, the plurality of control modes being used for performing focusing control using at least one of the tilt driving unit and the focus driving unit . a tilt driving unit configured to change a tilt of at least one of an image sensor and an image pickup optical system so as to change an angle between an image pickup plane of the image sensor and a principal plane of the image pickup optical system; a focus driving unit configured to drive a focus lens of the image pickup optical system; and an area setting unit configured to set a plurality of areas in a captured image, characterized by further comprising: a defocus information detection unit configured to detect defocus information for each of the plurality of areas, using focus detection by an image pickup plane phase difference method based on an output from the image sensor, and to determine the reliability of the defocus information for each of the plurality of areas; and a control unit configured to select one control mode from a plurality of control modes based on the reliability of the defocus information for each of the plurality of areas, the plurality of control modes being used for performing focusing control using at least one of the tilt driving unit and the focus driving unit . a defocus information detection unit configured to detect defocus information for each of the plurality of areas, using focus detection by an image pickup plane phase difference method based on an output from the image sensor, and to determine the reliability of the defocus information for each of the plurality of areas; and a control unit configured to select one control mode from a plurality of control modes based on the reliability of the defocus information for each of the plurality of areas, the plurality of control modes being used for performing focusing control using at least one of the tilt driving unit and the focus driving unit .
A method for receiving a downlink signal by a user equipment , UE, from an eNB in a wireless communication system, the method comprising the steps of: receiving (S901) a downlink control channel from the eNB; and receiving (S903), from the eNB, a downlink data channel and a front loaded reference signal for demodulation of the downlink data channel by using control information included in the downlink control channel, wherein resource elements of symbols to which a front loaded reference signal is received are divided into two multiplexing groups or three multiplexing groups, and wherein the downlink control channel includes information on a multiplexing group, to which the front loaded reference signal is allocated, among the multiplexing groups, and information on a number of multiplexing groups, to which data are not allocated, among the multiplexing groups, and wherein, if the number of the multiplexing groups is three and the number of the multiplexing groups to which the data are not allocated is one, the multiplexing group to which the data are not allocated is a multiplexing group having a lowest index. receiving (S901) a downlink control channel from the eNB; and receiving (S903), from the eNB, a downlink data channel and a front loaded reference signal for demodulation of the downlink data channel by using control information included in the downlink control channel, wherein resource elements of symbols to which a front loaded reference signal is received are divided into two multiplexing groups or three multiplexing groups, and wherein the downlink control channel includes information on a multiplexing group, to which the front loaded reference signal is allocated, among the multiplexing groups, and information on a number of multiplexing groups, to which data are not allocated, among the multiplexing groups, and wherein, if the number of the multiplexing groups is three and the number of the multiplexing groups to which the data are not allocated is one, the multiplexing group to which the data are not allocated is a multiplexing group having a lowest index.
Method (S1-S9) for operating a vaporiser of a household appliance (H), the vaporiser being provided with a heating system and having at least part of a level detector for detecting a predetermined filling level (L1) and at least part of an overheating detector for establishing that the heating system has overheated, characterised in that the method has at least the following steps: (i) (S1) filling the vaporiser at least to the predetermined filling level (L1); (ii) (S2) emptying the vaporiser by means of an emptying arrangement ; (iii) (S3) starting a time measurement (Z0) once the level falls below the predetermined filling level (L1); (iv) (S4) switching on the heating system of the vaporiser once the level falls below the predetermined filling level (L1); (v) (S5) stopping the time measurement (Z0) once it has been established that the heating system has overheated; (vi) (S6) calculating a delivery output during emptying of the vaporiser , from a duration for emptying that is determined by means of the time measurement (Z0) wherein the calculation comprises dividing a liquid volume of the vaporiser by the duration for emptying. (i) (S1) filling the vaporiser at least to the predetermined filling level (L1); (ii) (S2) emptying the vaporiser by means of an emptying arrangement ; (iii) (S3) starting a time measurement (Z0) once the level falls below the predetermined filling level (L1); (iv) (S4) switching on the heating system of the vaporiser once the level falls below the predetermined filling level (L1); (v) (S5) stopping the time measurement (Z0) once it has been established that the heating system has overheated; (vi) (S6) calculating a delivery output during emptying of the vaporiser , from a duration for emptying that is determined by means of the time measurement (Z0) wherein the calculation comprises dividing a liquid volume of the vaporiser by the duration for emptying.
An ultrasonic diagnostic apparatus comprising: a transmitter/receiver that causes an ultrasonic probe to transmit on each scanning line at least three ultrasonic pulses each having an identical frequency, and that generates a plurality of reception signals corresponding to the respective ultrasonic pulses; a signal processor that combines the plurality of the reception signals and that generates a composite signal; and an image generator that generates ultrasonic image data based on the composite signal, Characterised In That : the signal processor performs composite processing in which a fundamental wave component and a low-frequency component generated by a second-order nonlinear phenomenon are removed from the plurality of the reception signals, wherein, for transmitting the at least three ultrasonic pulses each having an identical frequency on each scanning line, the transmitter/receiver performs on each scanning line at least one set of transmissions in any order, the one set of transmissions comprising: a first transmission with a first phase; a second transmission with a second phase different from the first phase by 90 degrees; and a third transmission with a third phase different from the first phase by 180 degrees, and wherein the signal processor , in composite processing of three reception signals obtained through the one set of tranmissions, subtracts a reception signal in the second transmission from a reception signal in the first transmission and adds the signal obtained by rotating a phase of a reception signal in the second transmission by 90 degrees to the subtracted signal, and generates the composite signal by subtracting a signal obtained by rotating a phase of a reception signal in the third transmission by 90 degrees from the added signal. a first transmission with a first phase; a second transmission with a second phase different from the first phase by 90 degrees; and a third transmission with a third phase different from the first phase by 180 degrees, and wherein the signal processor , in composite processing of three reception signals obtained through the one set of tranmissions, subtracts a reception signal in the second transmission from a reception signal in the first transmission and adds the signal obtained by rotating a phase of a reception signal in the second transmission by 90 degrees to the subtracted signal, and generates the composite signal by subtracting a signal obtained by rotating a phase of a reception signal in the third transmission by 90 degrees from the added signal.