mhurhangee/patent-ind-claim-en huggingface dataset:
Electric automotive vacuum pump arrangement comprising a housing assembly comprising an inlet opening arrangement with an inlet opening and an outlet opening arrangement with an outlet opening , which housing assembly comprises a pump unit and a drive motor , wherein the pump unit comprises a pump rotor housing consisting of an inlet-side and outlet-side end wall and a pump rotor housing part arranged therebetween, which enclose a pump rotor chamber in which a pump rotor is provided, wherein the drive motor comprises a motor rotor and a motor stator, wherein at least one sound damping means is provided for noise reduction, wherein the outlet opening arrangement follows sound damping means and wherein sealing means are provided subsequent to the pump rotor chamber and in the direction of the outlet opening , characterized in that the outlet opening arrangement comprises an outlet channel which is closed with respect to the drive motor and the pump unit and which, viewed in the direction of the outlet opening , comprises at least one abrupt cross section change with A2/A1 > 3 as sealing means, A2 representing the cross sectional area of a section after the cross section change , which section is designed as a third channel element, and A1 representing the cross sectional area of a section before the cross sectional change , which section is designed as a second channel element, wherein the outlet opening arrangement is provided as a channel arrangement in the form of successive channel elements in the outlet-side end wall , in the pump rotor housing part and in the inlet-side end wall .
A method for beam management, the method comprising: determining, by a network node , a first transmit, TX, beam for use in communicating with a first user equipment, UE ; determining, by the network node , a second TX beam for use in communicating with a second UE ; and performing a procedure to allow the first UE to evaluate different receive (RX) beams and to select an RX beam for use by the first UE in receiving signals transmitted by the network node, wherein the procedure comprises: transmitting to the first UE a first message comprising information that a) identifies a first resource that will be used to transmit a reference signal, RS2, for a second UE, b) causes the first UE to treat RS2 for the second UE as an interfering signal, c) identifies a second resource that will be used to transmit another reference signal, RS1, and d) causes the first UE to not treat RS1 as an interfering signal, wherein the first resource is different than the second resource; transmitting RS1 using the first TX beam; and transmitting RS2 using the second TX beam. determining, by a network node , a first transmit, TX, beam for use in communicating with a first user equipment, UE ; determining, by the network node , a second TX beam for use in communicating with a second UE ; and performing a procedure to allow the first UE to evaluate different receive (RX) beams and to select an RX beam for use by the first UE in receiving signals transmitted by the network node, wherein the procedure comprises: transmitting to the first UE a first message comprising information that a) identifies a first resource that will be used to transmit a reference signal, RS2, for a second UE, b) causes the first UE to treat RS2 for the second UE as an interfering signal, c) identifies a second resource that will be used to transmit another reference signal, RS1, and d) causes the first UE to not treat RS1 as an interfering signal, wherein the first resource is different than the second resource; transmitting RS1 using the first TX beam; and transmitting RS2 using the second TX beam. transmitting to the first UE a first message comprising information that a) identifies a first resource that will be used to transmit a reference signal, RS2, for a second UE, b) causes the first UE to treat RS2 for the second UE as an interfering signal, c) identifies a second resource that will be used to transmit another reference signal, RS1, and d) causes the first UE to not treat RS1 as an interfering signal, wherein the first resource is different than the second resource; transmitting RS1 using the first TX beam; and transmitting RS2 using the second TX beam.
A stackable storage system comprising: a first storage container configured and arranged to be selectively connected to a second storage container when the first storage container is on top of the second storage container ; wherein each of the first container and the second container comprises a first locking portion on a bottom side of the respective first container and the second container and a second locking portion on a top side of the respective first container and the second container ; and wherein downward pressure on the first container causes the first locking portion of the first container and the second locking portion of the second container to engage with each other to connect the first container and the second container ; wherein the first locking portion comprises a protrusion with an opening and a surface underneath the opening and the second locking portion comprises of a block with an inclined surface , wherein downward pressure on the first storage container causes the surface of the protrusion of the first locking portion of the first storage container and inclined surface of the block of the second locking portion of the second storage container to slide against each other to connect the first storage container and the second storage container ; characterized in that there is a positioning assembly combined to a locking member of the second locking portion , wherein the locking member comprises the block with the inclined surface and the positioning assembly selectively holds the locking member in one of a locking position, a release position, and a holding position. a first storage container configured and arranged to be selectively connected to a second storage container when the first storage container is on top of the second storage container ; wherein each of the first container and the second container comprises a first locking portion on a bottom side of the respective first container and the second container and a second locking portion on a top side of the respective first container and the second container ; and wherein downward pressure on the first container causes the first locking portion of the first container and the second locking portion of the second container to engage with each other to connect the first container and the second container ; wherein the first locking portion comprises a protrusion with an opening and a surface underneath the opening and the second locking portion comprises of a block with an inclined surface , wherein downward pressure on the first storage container causes the surface of the protrusion of the first locking portion of the first storage container and inclined surface of the block of the second locking portion of the second storage container to slide against each other to connect the first storage container and the second storage container ; characterized in that there is a positioning assembly combined to a locking member of the second locking portion , wherein the locking member comprises the block with the inclined surface and the positioning assembly selectively holds the locking member in one of a locking position, a release position, and a holding position.
Method for determining fouling in a heat exchanger , in which heat from a first medium (S) is transferred to a second medium (P), wherein a value for a variable characterising the fouling ( R f ) is determined from a value for a first variable (k) affected by the fouling and from a value of a second variable (X), wherein a change in the first variable (k) caused by a change in a flow (F S , F P ) of the first medium (S) and/or of the second medium (P) through the heat exchanger is compensated for at least in part by the second variable (X), wherein the first variable (k) is a thermal transmission resistance or a thermal transmittance (or a thermal transmission coefficient (k value)), and wherein the first variable (k) and the second variable (X) is determined from measured values of a plurality of the following measured variables - temperatures ( T P,In , T P,Out , T S,In , T S,Out ) of the first medium (S) and of the second medium (P) at the inlet and at the outlet of the heat exchanger and - flows ( F P , F S ) of the first medium (S) and of the second medium (P) through the heat exchanger , characterised in that neither material properties of the first medium (S) and of the second medium (P) nor structural properties of the heat exchanger are used in the determination of the first and the second variable. wherein a value for a variable characterising the fouling ( R f ) is determined from a value for a first variable (k) affected by the fouling and from a value of a second variable (X), wherein a change in the first variable (k) caused by a change in a flow (F S , F P ) of the first medium (S) and/or of the second medium (P) through the heat exchanger is compensated for at least in part by the second variable (X), wherein the first variable (k) is a thermal transmission resistance or a thermal transmittance (or a thermal transmission coefficient (k value)), and wherein the first variable (k) and the second variable (X) is determined from measured values of a plurality of the following measured variables - temperatures ( T P,In , T P,Out , T S,In , T S,Out ) of the first medium (S) and of the second medium (P) at the inlet and at the outlet of the heat exchanger and - flows ( F P , F S ) of the first medium (S) and of the second medium (P) through the heat exchanger , - temperatures ( T P,In , T P,Out , T S,In , T S,Out ) of the first medium (S) and of the second medium (P) at the inlet and at the outlet of the heat exchanger and - flows ( F P , F S ) of the first medium (S) and of the second medium (P) through the heat exchanger , characterised in that neither material properties of the first medium (S) and of the second medium (P) nor structural properties of the heat exchanger are used in the determination of the first and the second variable.
A method for controlling a repair of at least one non-autonomic extrinsic self-healing material in an object, the method, performed by a server , comprising: triggering at least one sensor element (110A; 110B) embedded in the at least one non-autonomic extrinsic self-healing material to initiate a testing procedure for the at least one non-autonomic extrinsic self-healing material, receiving a result of the testing procedure in the server , characterized in that the method further comprising: analysing the result of the testing procedure, determining , in response to a detection in the analysing that the at least one non-autonomic extrinsic self-healing material requires a repair process, capability information of the sensor element (110A; 110B) with an inquiry to one of: the at least one sensor element (110A; 110B), a database; the capability information being indicative on a kind of repair process the sensor element is capable of, receiving the capability information in the server , determining a triggering instruction to the sensor element (110A; 110B) in the server on the basis of the capability information, delivering the triggering instruction to utilize an applicable capability of the sensor element (110A; 110B) to the sensor element (110A; 110B). triggering at least one sensor element (110A; 110B) embedded in the at least one non-autonomic extrinsic self-healing material to initiate a testing procedure for the at least one non-autonomic extrinsic self-healing material, receiving a result of the testing procedure in the server , characterized in that the method further comprising: analysing the result of the testing procedure, determining , in response to a detection in the analysing that the at least one non-autonomic extrinsic self-healing material requires a repair process, capability information of the sensor element (110A; 110B) with an inquiry to one of: the at least one sensor element (110A; 110B), a database; the capability information being indicative on a kind of repair process the sensor element is capable of, receiving the capability information in the server , determining a triggering instruction to the sensor element (110A; 110B) in the server on the basis of the capability information, delivering the triggering instruction to utilize an applicable capability of the sensor element (110A; 110B) to the sensor element (110A; 110B). analysing the result of the testing procedure, determining , in response to a detection in the analysing that the at least one non-autonomic extrinsic self-healing material requires a repair process, capability information of the sensor element (110A; 110B) with an inquiry to one of: the at least one sensor element (110A; 110B), a database; the capability information being indicative on a kind of repair process the sensor element is capable of, receiving the capability information in the server , determining a triggering instruction to the sensor element (110A; 110B) in the server on the basis of the capability information, delivering the triggering instruction to utilize an applicable capability of the sensor element (110A; 110B) to the sensor element (110A; 110B).
A composition for use in preventing influenza viral infection, wherein the influenza virus is an influenza A/California/04/09 or A/California/7/2009, comprising tannic acid as an active ingredient.
A printing device that is able to communicate over a network with an information processing device executing a print service for generating a print job, the printing device comprising: registering means (S401) for registering a set of print setting values and an identifier corresponding to the set of print setting values, wherein one of the print setting values cannot be set through a print setting screen of the print service; first receiving means (S402) for receiving from the information processing device a request for obtaining information about the printing device; sending means (S404) for sending the identifier registered by the registering means to the information processing device as a response to the received request; second receiving means (S408) for receiving the print job including print data and the identifier from the information processing device; and processing means (S409/S410) for processing the received print data according to the print setting values obtained from the identifier received from the information processing device and corresponding to the one of print setting values registered by the registering means. registering means (S401) for registering a set of print setting values and an identifier corresponding to the set of print setting values, wherein one of the print setting values cannot be set through a print setting screen of the print service; first receiving means (S402) for receiving from the information processing device a request for obtaining information about the printing device; sending means (S404) for sending the identifier registered by the registering means to the information processing device as a response to the received request; second receiving means (S408) for receiving the print job including print data and the identifier from the information processing device; and processing means (S409/S410) for processing the received print data according to the print setting values obtained from the identifier received from the information processing device and corresponding to the one of print setting values registered by the registering means.
An electromagnetic shield structure comprising: an electromagnetic shield pipe; a plurality of cables configured to be inserted into the electromagnetic shield pipe and exposed from an end portion of the electromagnetic shield pipe ; and a plurality of cylindrical flexible shield members configured to cover the plurality of cables exposed from the end portion of the electromagnetic shield pipe, wherein the plurality of cylindrical flexible shield members is fixed with a crimp member on an outer circumference of the electromagnetic shield pipe, and an entire outer circumferential surface of each of the plurality of cylindrical flexible shield members is pressed by the crimp member from an outer circumferential side, on a cross section perpendicular to a longitudinal direction of the electromagnetic shield pipe in a portion where the crimp member is disposed, wherein the plurality of cylindrical flexible shield members is fixed with the crimp member at an identical position in the longitudinal direction of the electromagnetic shield pipe , characterized in that the plurality of cylindrical flexible shield members is fixed with the crimp member in a state of being overlapped across an entire circumference in a circumferential direction, on a cross section perpendicular to the longitudinal direction of the electromagnetic shield pipe . an electromagnetic shield pipe; a plurality of cables configured to be inserted into the electromagnetic shield pipe and exposed from an end portion of the electromagnetic shield pipe ; and a plurality of cylindrical flexible shield members configured to cover the plurality of cables exposed from the end portion of the electromagnetic shield pipe, wherein the plurality of cylindrical flexible shield members is fixed with a crimp member on an outer circumference of the electromagnetic shield pipe, and an entire outer circumferential surface of each of the plurality of cylindrical flexible shield members is pressed by the crimp member from an outer circumferential side, on a cross section perpendicular to a longitudinal direction of the electromagnetic shield pipe in a portion where the crimp member is disposed, wherein the plurality of cylindrical flexible shield members is fixed with the crimp member at an identical position in the longitudinal direction of the electromagnetic shield pipe , characterized in that the plurality of cylindrical flexible shield members is fixed with the crimp member in a state of being overlapped across an entire circumference in a circumferential direction, on a cross section perpendicular to the longitudinal direction of the electromagnetic shield pipe .
A method of operating a quantum computer, comprising: for each phase angle φ in a sequence of phase angles: initializing N qubits of the quantum computer in a Greenberger-Horne-Zeilinger, GHZ, state that allows the amplification of quantum errors through coherent phase accumulation; measuring parity oscillations of the GHZ state for the phase angle φ, obtaining , by one or more classical processors, an ensemble average of accumulated errors, comprising obtaining a power spectrum of the parity oscillations as a function of phase frequency α φ conjugate to phase angle φ; and fitting , by one or more classical processors, a Pauli error model to the ensemble average of the accumulated quantum errors, comprising fitting a Pauli phase error probability Ψ z and Pauli bit-flip error probability Ψ x to the power spectrum of the parity oscillations. for each phase angle φ in a sequence of phase angles: initializing N qubits of the quantum computer in a Greenberger-Horne-Zeilinger, GHZ, state that allows the amplification of quantum errors through coherent phase accumulation; measuring parity oscillations of the GHZ state for the phase angle φ, initializing N qubits of the quantum computer in a Greenberger-Horne-Zeilinger, GHZ, state that allows the amplification of quantum errors through coherent phase accumulation; measuring parity oscillations of the GHZ state for the phase angle φ, obtaining , by one or more classical processors, an ensemble average of accumulated errors, comprising obtaining a power spectrum of the parity oscillations as a function of phase frequency α φ conjugate to phase angle φ; and fitting , by one or more classical processors, a Pauli error model to the ensemble average of the accumulated quantum errors, comprising fitting a Pauli phase error probability Ψ z and Pauli bit-flip error probability Ψ x to the power spectrum of the parity oscillations.
Thread guiding device for guiding a textile thread from a textile thread store of a textile machine under tension to a working region of the textile machine , comprising: - a deflection element which can be brought into contact with a textile thread emanating from the textile thread store and via which the textile thread can be deflected into the working region , wherein the deflection element is mounted movably relative to the textile thread store in a displacement range between a first and a second end position; and - a tensioning device (13a; 13b; 13c; 13d; 13e; 13f) which mounts the deflection element and is configured to exert a tensioning force on a textile thread in contact with the deflection element and for this purpose comprises a force element (30a; 30b; 30c; 30d; 30e) which can be deformed via a displacement of the deflection element , wherein the force element (30a; 30b; 30c; 30d; 30e) comprises at least one first elastic spring element which is deformed via a displacement, dependent on the displacement of the deflection element , of a displacement point of the first spring element along a displacement direction, wherein the first spring element is a spring element with a degressive force-deformation relationship or a constant-force spring, and wherein a ratio of a deformation force, averaged over the displacement range of the deflection element , of the force element (30a; 30b; 30c; 30d; 30e) to the deformation force of the force element (30a; 30b; 30c; 30d; 30e) in the first or in the second end position of the deflection element is 0.8 to 1.2. - a deflection element which can be brought into contact with a textile thread emanating from the textile thread store and via which the textile thread can be deflected into the working region , wherein the deflection element is mounted movably relative to the textile thread store in a displacement range between a first and a second end position; and - a tensioning device (13a; 13b; 13c; 13d; 13e; 13f) which mounts the deflection element and is configured to exert a tensioning force on a textile thread in contact with the deflection element and for this purpose comprises a force element (30a; 30b; 30c; 30d; 30e) which can be deformed via a displacement of the deflection element , wherein the force element (30a; 30b; 30c; 30d; 30e) comprises at least one first elastic spring element which is deformed via a displacement, dependent on the displacement of the deflection element , of a displacement point of the first spring element along a displacement direction, wherein the first spring element is a spring element with a degressive force-deformation relationship or a constant-force spring, and wherein a ratio of a deformation force, averaged over the displacement range of the deflection element , of the force element (30a; 30b; 30c; 30d; 30e) to the deformation force of the force element (30a; 30b; 30c; 30d; 30e) in the first or in the second end position of the deflection element is 0.8 to 1.2.