mhurhangee/patent-ind-claim-en huggingface dataset:
Method for detecting blood (B) in a dialysate flow (DS) of a dialysis machine during an extracorporeal blood treatment, the method comprising the following steps: a) radiating light (L) into the dialysate flow (DS); b) registering, at a first detection location (E1), a light component (LT) of the light (L) radiated in that has been transmitted through the dialysate flow (DS) and producing a first signal (S1) which represents the intensity of the registered transmitted light component (LT) ; c) registering, at a second detection location (E2), a light component (LS) of the light (L) radiated in that has been scattered in the dialysate flow (DS) and producing a second signal (S2) which represents the intensity of the registered scattered light component (LS) ; d) producing a detection signal (Z) on the basis of the first signal (S1) produced and the second signal (S2) produced; e) emitting UV light (U), with the UV light (U) being radiated into the dialysate flow (DS) and being radiated past the dialysate flow (DS); f) registering, at the first detection location (E1), a UV light component (UT) of the UV light (U) radiated in that has been transmitted through the dialysate flow (DS) and producing a third signal (S3) which represents the intensity of the registered transmitted UV light component (UT); g) registering, at the second detection location (E2), the UV light (U) radiated past the dialysate flow (DS) and producing a fourth signal (S4) which represents the intensity of the registered UV light (U) radiated past said dialysate flow; h) determining a Kt/V value (K) on the basis of the third signal (S3) produced and the fourth signal (S4) produced. a) radiating light (L) into the dialysate flow (DS); b) registering, at a first detection location (E1), a light component (LT) of the light (L) radiated in that has been transmitted through the dialysate flow (DS) and producing a first signal (S1) which represents the intensity of the registered transmitted light component (LT) ; c) registering, at a second detection location (E2), a light component (LS) of the light (L) radiated in that has been scattered in the dialysate flow (DS) and producing a second signal (S2) which represents the intensity of the registered scattered light component (LS) ; d) producing a detection signal (Z) on the basis of the first signal (S1) produced and the second signal (S2) produced; e) emitting UV light (U), with the UV light (U) being radiated into the dialysate flow (DS) and being radiated past the dialysate flow (DS); f) registering, at the first detection location (E1), a UV light component (UT) of the UV light (U) radiated in that has been transmitted through the dialysate flow (DS) and producing a third signal (S3) which represents the intensity of the registered transmitted UV light component (UT); g) registering, at the second detection location (E2), the UV light (U) radiated past the dialysate flow (DS) and producing a fourth signal (S4) which represents the intensity of the registered UV light (U) radiated past said dialysate flow; h) determining a Kt/V value (K) on the basis of the third signal (S3) produced and the fourth signal (S4) produced.
An aircraft power and propulsion system , comprising: a gas turbine engine ; a DC electrical network ; a permanent magnet electrical machine comprising a rotor drivingly coupled to a spool of the gas turbine engine, and a stator comprising windings; an AC:DC power electronics converter , an AC side of which is connected to terminals of the stator windings of the electrical machine and a DC side of which is connected to the DC electrical network; characterized by a controllable switching arrangement having a first switching state in which the stator windings are in a star configuration, a second switching state in which the stator windings are in a delta configuration, and a third switching state in which the terminals of the stator windings are connected together; and a control system configured to control the switching state of the switching arrangement, the control system further configured to: monitor at least one operating condition of the power and propulsion system and to control the switching state between the star configuration and the delta configuration based on the at least one operating condition; and monitor the power and propulsion system for faults and, in response to detecting to a fault, switch the switching arrangement to the third switching state. a gas turbine engine ; a DC electrical network ; a permanent magnet electrical machine comprising a rotor drivingly coupled to a spool of the gas turbine engine, and a stator comprising windings; an AC:DC power electronics converter , an AC side of which is connected to terminals of the stator windings of the electrical machine and a DC side of which is connected to the DC electrical network; characterized by a controllable switching arrangement having a first switching state in which the stator windings are in a star configuration, a second switching state in which the stator windings are in a delta configuration, and a third switching state in which the terminals of the stator windings are connected together; and a control system configured to control the switching state of the switching arrangement, the control system further configured to: monitor at least one operating condition of the power and propulsion system and to control the switching state between the star configuration and the delta configuration based on the at least one operating condition; and monitor the power and propulsion system for faults and, in response to detecting to a fault, switch the switching arrangement to the third switching state. monitor at least one operating condition of the power and propulsion system and to control the switching state between the star configuration and the delta configuration based on the at least one operating condition; and monitor the power and propulsion system for faults and, in response to detecting to a fault, switch the switching arrangement to the third switching state.
Head-up display comprising: - an imaging unit for generating an image; and - an optical system for projecting the image onto a projection surface , wherein the optical system comprises at least a first mirror , a curved second mirror arranged next to the first mirror and a selectively reflective element arranged in the optical path between the first mirror and the second mirror , and wherein the optical system is designed such that light emitted from the imaging unit : - strikes the selectively reflective element and passes through it unhindered; - strikes the first mirror and is reflected by it in the direction of the selectively reflective element ; - is reflected by the selectively reflective element in the direction of the second mirror ; - is reflected by the second mirror in the direction of the selectively reflective element and passes through it unhindered; and - strikes the projection surface . - an imaging unit for generating an image; and - an optical system for projecting the image onto a projection surface , wherein the optical system comprises at least a first mirror , a curved second mirror arranged next to the first mirror and a selectively reflective element arranged in the optical path between the first mirror and the second mirror , and wherein the optical system is designed such that light emitted from the imaging unit : - strikes the selectively reflective element and passes through it unhindered; - strikes the first mirror and is reflected by it in the direction of the selectively reflective element ; - is reflected by the selectively reflective element in the direction of the second mirror ; - is reflected by the second mirror in the direction of the selectively reflective element and passes through it unhindered; and - strikes the projection surface . - strikes the selectively reflective element and passes through it unhindered; - strikes the first mirror and is reflected by it in the direction of the selectively reflective element ; - is reflected by the selectively reflective element in the direction of the second mirror ; - is reflected by the second mirror in the direction of the selectively reflective element and passes through it unhindered; and - strikes the projection surface .
A method for managing data processes in a network of computing resources, the method comprising: receiving, at a computing device , at least one child request generated for a parent request sent from an instructor device , the child request being routed from an intermediary device , to at least one corresponding destination device (108a ... 108n), the at least one child request requesting execution of at least one corresponding child data process, each of the at least one child data process for executing at least a portion of the at least one parent data process from the instructor device, and each of the at least one child request including a destination key derived at least in part from at least one instructor key, the destination key being associated with the child request; storing, by the computing device , the at least one child request in at least one storage device ; modifying, by the computing device , the at least one child request upon receiving a child request modification signal; and generating signals for communicating the child requests to one or more requesting devices; wherein the child request modification signal includes a mask message, and modifying the at least one child request comprises masking at least one field of the at least one child request, the at least one field being identified by the mask message; and wherein masking the at least one field comprises: encrypting the at least one field of the at least one child request with a secondary key associated with the intermediary device. receiving, at a computing device , at least one child request generated for a parent request sent from an instructor device , the child request being routed from an intermediary device , to at least one corresponding destination device (108a ... 108n), the at least one child request requesting execution of at least one corresponding child data process, each of the at least one child data process for executing at least a portion of the at least one parent data process from the instructor device, and each of the at least one child request including a destination key derived at least in part from at least one instructor key, the destination key being associated with the child request; storing, by the computing device , the at least one child request in at least one storage device ; modifying, by the computing device , the at least one child request upon receiving a child request modification signal; and generating signals for communicating the child requests to one or more requesting devices; wherein the child request modification signal includes a mask message, and modifying the at least one child request comprises masking at least one field of the at least one child request, the at least one field being identified by the mask message; and wherein masking the at least one field comprises: encrypting the at least one field of the at least one child request with a secondary key associated with the intermediary device.
Swimming goggles with distance adjustment, comprising a left and a right eyepiece which is mounted in a frame and adjusting means for adjusting the distance between the left and the right eyepiece consisting of a rotatable rotating body which is arranged to be adjustable in the central region between two connecting pieces and is connected to the connecting pieces respectively on the end face-side by two threaded screw connections (18, 19; 20, 21) acting in opposite direction, wherein the connecting pieces have protection against torsion which prevents mutual torsion of the connecting pieces in the frame .
An evaporator with an auxiliary heating device, comprising: an evaporator , a heating device , and two mounting plates provided at two ends of the evaporator respectively, wherein two ends of the heating device are connected to the two mounting plates respectively, wherein the heating device includes a heating body (2-1), and a plurality of radiators (2-2), the plurality of radiators (2-2) is provided at upper and lower faces of the heating body (2-1), and two ends of the heating device are symmetrically provided with mounting frames (2-3), characterized in that the radiator (2-2) comprises a radiator base (2-2-1) and a plurality of first fins (2-2-2), the plurality of first fins (2-2-2) is distributed vertically and uniformly on the radiator base (2-2-1), and a width of the first fin (2-2-2) is equal to a width of the radiator base (2-2-1). an evaporator , a heating device , and two mounting plates provided at two ends of the evaporator respectively, wherein two ends of the heating device are connected to the two mounting plates respectively, wherein the heating device includes a heating body (2-1), and a plurality of radiators (2-2), the plurality of radiators (2-2) is provided at upper and lower faces of the heating body (2-1), and two ends of the heating device are symmetrically provided with mounting frames (2-3), characterized in that the radiator (2-2) comprises a radiator base (2-2-1) and a plurality of first fins (2-2-2), the plurality of first fins (2-2-2) is distributed vertically and uniformly on the radiator base (2-2-1), and a width of the first fin (2-2-2) is equal to a width of the radiator base (2-2-1).
An LCD module comprising: an LCD panel having a front face , a rear face and N sides, where N is an integer greater than two; and a backlight unit comprising: a frame having a front face , a rear face , N sides and a central aperture and wherein the LCD panel is attached to the frame ; a light guide positioned within the central aperture of the frame and having a front face, a rear face and a plurality of sides; and a reflector covering the rear face of the light guide and covering at least a part of the rear face of the frame and attached to at least a part of the first side of the frame . characterized in that the LCD panel is attached to the front face of the frame such that a first of the N sides of the frame is flush with a first of the N sides of the LCD panel and the reflector is attached to at least a part of the first side of the LCD panel . an LCD panel having a front face , a rear face and N sides, where N is an integer greater than two; and a backlight unit comprising: a frame having a front face , a rear face , N sides and a central aperture and wherein the LCD panel is attached to the frame ; a light guide positioned within the central aperture of the frame and having a front face, a rear face and a plurality of sides; and a reflector covering the rear face of the light guide and covering at least a part of the rear face of the frame and attached to at least a part of the first side of the frame . characterized in that the LCD panel is attached to the front face of the frame such that a first of the N sides of the frame is flush with a first of the N sides of the LCD panel and the reflector is attached to at least a part of the first side of the LCD panel . a frame having a front face , a rear face , N sides and a central aperture and wherein the LCD panel is attached to the frame ; a light guide positioned within the central aperture of the frame and having a front face, a rear face and a plurality of sides; and a reflector covering the rear face of the light guide and covering at least a part of the rear face of the frame and attached to at least a part of the first side of the frame . characterized in that the LCD panel is attached to the front face of the frame such that a first of the N sides of the frame is flush with a first of the N sides of the LCD panel and the reflector is attached to at least a part of the first side of the LCD panel .
A co-crystal comprising carboplatin (CBP) and N-methyl-2-pyrrolidone (NMP), wherein CBP and NMP are bonded at a 1:1 ratio.
A drainage piping arrangement for use on a building (G) which has a base plate and/or foundation (F) in the surrounding subsurface (U), having a substantially horizontal discharge pipe , able to be arranged in the deeper subsurface (U), and a substantially perpendicular feed line to the horizontal discharge pipe , wherein between the perpendicular feed line and the horizontal discharge pipe there is a long socket connection provided in the perpendicularly oriented piping path, wherein the perpendicular feed line is anchorable to the base plate and/or to the foundation (F) by means of a pipe clamp , characterised in that a check rod is displaceably held in or on the perpendicular feed line in a perpendicular longitudinal direction, wherein the check rod is securely anchored to the horizontal discharge pipe .
Method for controlling an electric motor as a drive motor of a two-wheeled vehicle , comprising the following method steps • sensor-based identification of the two-wheeled vehicle being pushed, • detection of an input by a user for activating a pushing aid operating mode, wherein the detection of the input by the user is made after the sensor-based identification , and • generation of a motor torque for driving the two-wheeled vehicle in the pushing aid operating mode depending on identified pushing and the detected input by the user. • sensor-based identification of the two-wheeled vehicle being pushed, • detection of an input by a user for activating a pushing aid operating mode, wherein the detection of the input by the user is made after the sensor-based identification , and • generation of a motor torque for driving the two-wheeled vehicle in the pushing aid operating mode depending on identified pushing and the detected input by the user.
A chuck device comprising: a main body including a metal core part and an annular space coaxial with and formed around the metal core part ; a rubber elastic body fitted in the annular space of the main body such that there is a pressure chamber between a circumferential wall that defines the annular space and the rubber elastic body , and that there is a clearance between the rubber elastic body and the metal core part for allowing a tubular clamping target component (P) to be inserted therein; and a passage that communicates with the pressure chamber for introducing a fluid to the pressure chamber , wherein the rubber elastic body is deformed to expand toward the metal core part by a pressure of a fluid introduced to the pressure chamber via the passage , characterized in that the metal core part tapers so as to become gradually narrower toward its tip. a main body including a metal core part and an annular space coaxial with and formed around the metal core part ; a rubber elastic body fitted in the annular space of the main body such that there is a pressure chamber between a circumferential wall that defines the annular space and the rubber elastic body , and that there is a clearance between the rubber elastic body and the metal core part for allowing a tubular clamping target component (P) to be inserted therein; and a passage that communicates with the pressure chamber for introducing a fluid to the pressure chamber , wherein the rubber elastic body is deformed to expand toward the metal core part by a pressure of a fluid introduced to the pressure chamber via the passage ,
High voltage switch with - a first terminal contact connected to a first fixed contact , - a second terminal contact connected to a second fixed contact , - a bridge contact arranged between the first fixed contact and the second fixed contact connecting the first fixed contact to the second fixed contact, wherein the bridge contact is pressed against at least one of the fixed contacts with a contact pressure force and can be released from at least one of the fixed contacts with a pull-off force, and - a drive acting on the bridge contact in the direction of the pull-off force, wherein - a measuring circuit senses a voltage drop between the fixed contacts in the event of levitation between at least one fixed contact and the bridge contact, characterized in that - The measuring circuit, depending on the sensed voltage drop, controls the drive in such a way that the drive acts on the bridge contact with a force in the direction of the pull-off force. - a first terminal contact connected to a first fixed contact , - a second terminal contact connected to a second fixed contact , - a bridge contact arranged between the first fixed contact and the second fixed contact connecting the first fixed contact to the second fixed contact, wherein the bridge contact is pressed against at least one of the fixed contacts with a contact pressure force and can be released from at least one of the fixed contacts with a pull-off force, and - a drive acting on the bridge contact in the direction of the pull-off force, wherein - a measuring circuit senses a voltage drop between the fixed contacts in the event of levitation between at least one fixed contact and the bridge contact, characterized in that - The measuring circuit, depending on the sensed voltage drop, controls the drive in such a way that the drive acts on the bridge contact with a force in the direction of the pull-off force. - The measuring circuit, depending on the sensed voltage drop, controls the drive in such a way that the drive acts on the bridge contact with a force in the direction of the pull-off force.
A trampoline , comprising: a frame ; a flexible mat ; a plurality of resilient members attached to the frame and to the flexible mat, wherein the resilient members receive kinetic energy from a trampoline user jumping on the flexible mat, enabling the trampoline user to be lifted above a surface of the flexible mat; a plurality of leg sections supporting the frame ; a plurality of support bars , wherein a number of support bars of the plurality of support bars equals a number of leg sections of the plurality of leg sections , wherein each support bar is attached to the frame at a location approximately above a corresponding leg section of the plurality of leg sections , characterized in that the plurality of resilient members are attached to the frame at a location below a location where the plurality of support bars are attached to the frame such that the plurality of resilient members avoid contact with the plurality of support bars when the trampoline user jumps on the flexible mat, and wherein two of the support bars attached to a long beam of the frame of the trampoline contribute to a reduced bending rate (V max-A12 /V max-B12 ; V max-A14/ V max-B14 ), with respect to said long beam bending inwards, of between 8-15 times compared to not having a support bar. a frame ; a flexible mat ; a plurality of resilient members attached to the frame and to the flexible mat, wherein the resilient members receive kinetic energy from a trampoline user jumping on the flexible mat, enabling the trampoline user to be lifted above a surface of the flexible mat; a plurality of leg sections supporting the frame ; a plurality of support bars , wherein a number of support bars of the plurality of support bars equals a number of leg sections of the plurality of leg sections , wherein each support bar is attached to the frame at a location approximately above a corresponding leg section of the plurality of leg sections , characterized in that the plurality of resilient members are attached to the frame at a location below a location where the plurality of support bars are attached to the frame such that the plurality of resilient members avoid contact with the plurality of support bars when the trampoline user jumps on the flexible mat, and wherein two of the support bars attached to a long beam of the frame of the trampoline contribute to a reduced bending rate (V max-A12 /V max-B12 ; V max-A14/ V max-B14 ), with respect to said long beam bending inwards, of between 8-15 times compared to not having a support bar.