mhurhangee/patent-ind-claim-en huggingface dataset:
Clamping fixture for clamping a workpiece which can be rotated about an axis of rotation and which comprises a foot and a head having an, in particular cylindrical, pin , comprising a first centric clamping device which is mounted so as to be rotatable about the axis of rotation and intended for clamping the foot onto the workpiece , a rotary drive for rotating the first clamping device about the axis of rotation , a second centric clamping device for rotatably mounting the pin of the workpiece about the axis of rotation , wherein the second clamping device has a plurality of clamping jaws whose clamping surfaces are each formed by at least one running roller which is mounted so as to be freely rotatable about an axis parallel to the axis of rotation , and an axial clamping device which is arranged on the side of the second clamping device facing away from the first clamping device and which has a clamping element which is mounted so as to be rotatable about the axis of rotation and which can be advanced in the axial direction up to a front-end abutment against the pin of a workpiece clamped in the first clamping device , in order to axially clamp the workpiece , characterized in that the second clamping device and the axial clamping device are fastened to one another and are guided in an axially displaceable manner as a unit.
A pump for conveying a medium, in particular, a liquid or a solid-liquid mixture, comprising at least one drive , a first shaft (W1) and a second shaft (W2) driven by the first shaft (W1) in a rotating manner, which is connected to a pump element or is part of a pump element , wherein the first shaft (W1) is connected to the second shaft (W2) by means of at least one connection (V), wherein, during operation, the first shaft (W1) rotates at a first angle of rotation and the second shaft (W2) rotates at a second angle of rotation, each with reference to a common zero angle, characterized by a monitoring device which is designed to monitor the condition of the connection (V) by detecting a phase shift occurring in the connection between the first angle of rotation and the second angle of rotation. wherein the first shaft (W1) is connected to the second shaft (W2) by means of at least one connection (V), wherein, during operation, the first shaft (W1) rotates at a first angle of rotation and the second shaft (W2) rotates at a second angle of rotation, each with reference to a common zero angle, characterized by a monitoring device which is designed to monitor the condition of the connection (V) by detecting a phase shift occurring in the connection between the first angle of rotation and the second angle of rotation.
Device for preparing a beverage, more particularly, for a vehicle comprising: - a brewing unit for receiving a dose of beverage ingredients, - a pressure pump for supplying pressurized liquid to the brewing unit, - an electronic control unit for selectively controlling the activation of the pressure pump, wherein the electronic control unit is arranged to control the activation and de-activation of the pressure pump , by providing output to the pressure pump as response to input indicative of a determined inclination angle relative to horizontal and/or to a detected spatial displacement or acceleration; said input being received from inclination angle and/or displacement sensing means which are part of and/or foreign to the device, characterized in that the device further comprises a receptacle identification means providing input to the electronic control unit as to a type of receptacle positioned in proximity or connected to a beverage injector of the device. - a brewing unit for receiving a dose of beverage ingredients, - a pressure pump for supplying pressurized liquid to the brewing unit, - an electronic control unit for selectively controlling the activation of the pressure pump, wherein the electronic control unit is arranged to control the activation and de-activation of the pressure pump , by providing output to the pressure pump as response to input indicative of a determined inclination angle relative to horizontal and/or to a detected spatial displacement or acceleration; said input being received from inclination angle and/or displacement sensing means which are part of and/or foreign to the device, characterized in that the device further comprises a receptacle identification means providing input to the electronic control unit as to a type of receptacle positioned in proximity or connected to a beverage injector of the device.
A method of capturing a sperm deoxyribonucleic acid (DNA) from a biological sample, comprising: contacting a biological sample with a lysis solution, where the biological sample comprises at least a sperm cell or a sperm cell lysate, wherein the lysed biological sample solution comprises a protamine-DNA complex; applying at least a protamine-specific antibody to the lysed biological sample, wherein the protamine-specific antibody binds to the protamine-DNA complex of the lysed sperm cell to form an antibody- protamine- DNA complex; capturing the antibody-protamine-DNA complex; and optionally detecting the sperm DNA from the captured antibody-protamine-DNA complex, wherein the lysis solution comprises a detergent or a combination of detergent and reducing agent and a sequestration agent is applied after cell lysis to sequester detergent prior to applying the protamine-specific antibody to the lysed sperm cell. contacting a biological sample with a lysis solution, where the biological sample comprises at least a sperm cell or a sperm cell lysate, wherein the lysed biological sample solution comprises a protamine-DNA complex; applying at least a protamine-specific antibody to the lysed biological sample, wherein the protamine-specific antibody binds to the protamine-DNA complex of the lysed sperm cell to form an antibody- protamine- DNA complex; capturing the antibody-protamine-DNA complex; and optionally detecting the sperm DNA from the captured antibody-protamine-DNA complex,
Method for operating an on-board power supply network of a hybrid motor vehicle , wherein the on-board power supply network is connected to an energy store , in particular a battery, an electric motor of a hybrid drive train , which also has an internal combustion engine , and actuators of an electromechanical chassis system that can be operated as generators, wherein at least one reserve capacity of the energy store is kept open for receiving electrical energy generated by at least a portion of the actuators to the on-board power supply network , wherein the reserve capacity being kept open is dynamically adjusted as a function of at least one piece of situation information describing the current and/or future operation of the hybrid motor vehicle , characterized in that a predictive regenerative power requirement of the electromechanical chassis system for the future is determined as situation information as a function of route information describing a future route of the hybrid motor vehicle , taking into account road classes and/or carriageway conditions along the route, wherein a reserve capacity curve describing the future reserve capacities along the route is determined as a function of the predictive regenerative power requirement.
A method of wireless communication performed by a user equipment, UE , comprising: receiving an indicator, in a physical downlink control channel, PDCCH, payload, that indicates whether the PDCCH payload includes data or downlink control information, DCI, for obtaining the data, wherein the indicator is an initial state of a cyclic redundancy check that includes a predefined sequence of bits and further indicates whether the data is self-contained within the PDCCH payload or segmented across multiple PDCCH payloads; and obtaining at least one of the data or the DCI based at least in part on the indicator. receiving an indicator, in a physical downlink control channel, PDCCH, payload, that indicates whether the PDCCH payload includes data or downlink control information, DCI, for obtaining the data, wherein the indicator is an initial state of a cyclic redundancy check that includes a predefined sequence of bits and further indicates whether the data is self-contained within the PDCCH payload or segmented across multiple PDCCH payloads; and obtaining at least one of the data or the DCI based at least in part on the indicator.
A damper control device (C), comprising: a bank angle detector that detects a bank angle being an inclination angle in a lateral direction of a body (B) of a straddle-type vehicle (V); and a control unit that sets a damping force in an extension side of a damper (DF, DR) interposed between the body (B) and a wheel (WF, WR) of the straddle-type vehicle (V), to be larger as the bank angle is larger, characterized in that said control unit sets the damping force in a compression side of the damper (DF, DR) to be smaller when the bank angle exceeds an angle threshold. a bank angle detector that detects a bank angle being an inclination angle in a lateral direction of a body (B) of a straddle-type vehicle (V); and a control unit that sets a damping force in an extension side of a damper (DF, DR) interposed between the body (B) and a wheel (WF, WR) of the straddle-type vehicle (V), to be larger as the bank angle is larger, characterized in that said control unit sets the damping force in a compression side of the damper (DF, DR) to be smaller when the bank angle exceeds an angle threshold.
A method comprising the steps of implementing by a computer an embedding of cloud demands over a software defined flexible grid optical transport network, the implementing comprising: initially mapping virtual links over physical links in the network; finding potential modulation formats and routing solutions for a virtual link mapping; selecting a modulation format and a physical routing solution for a virtual link based on a probability of mapping the virtual link over the route using the modulation format; assigning a wavelength and allocation spectrum to a virtual link such that spectral fragmentation is minimized thereby improving likelihood of mapping virtual links over physical routes; and subsequently mapping virtual nodes over physical nodes which includes assigning virtual nodes associated with the mapped virtual link to the end of physical nodes of a selected route on which the virtual link is mapped. initially mapping virtual links over physical links in the network; finding potential modulation formats and routing solutions for a virtual link mapping; selecting a modulation format and a physical routing solution for a virtual link based on a probability of mapping the virtual link over the route using the modulation format; assigning a wavelength and allocation spectrum to a virtual link such that spectral fragmentation is minimized thereby improving likelihood of mapping virtual links over physical routes; and subsequently mapping virtual nodes over physical nodes which includes assigning virtual nodes associated with the mapped virtual link to the end of physical nodes of a selected route on which the virtual link is mapped.
A panel for an active laminar flow control arrangement, comprising: a longitudinal wall ; a sidewall extending from the longitudinal wall ; a ridge intersecting the sidewall ; a cavity disposed in the panel and at least partially defined by the sidewall and the longitudinal wall ; and a division wall disposed in the cavity and extending from the longitudinal wall , wherein the division wall divides the cavity to at least partially define a first plenum and a second plenum ; characterised by a sealant disposed on an end of the division wall and configured to be compressed between the end of the division wall and an outer skin ; wherein the division wall is T-shaped. a longitudinal wall ; a sidewall extending from the longitudinal wall ; a ridge intersecting the sidewall ; a cavity disposed in the panel and at least partially defined by the sidewall and the longitudinal wall ; and a division wall disposed in the cavity and extending from the longitudinal wall , wherein the division wall divides the cavity to at least partially define a first plenum and a second plenum ; characterised by a sealant disposed on an end of the division wall and configured to be compressed between the end of the division wall and an outer skin ; wherein the division wall is T-shaped.
A method for thermal management in a variable frequency drive , the method comprising: receiving, by a processor, operational data associated with a variable frequency drive , the operational data comprising one or more operational parameters for the variable frequency drive ; comparing the one or more operational parameters to a threshold ; operating the variable frequency drive to produce a first modulated output based at least in part on the one or more operational parameters being below the threshold ; and operating the variable frequency drive to produce a second modulated output based at least in part on at least one of the one or more operational parameters exceeding the threshold ; characterised in that the second modulated output is produced by the variable frequency drive for a first time period. receiving, by a processor, operational data associated with a variable frequency drive , the operational data comprising one or more operational parameters for the variable frequency drive ; comparing the one or more operational parameters to a threshold ; operating the variable frequency drive to produce a first modulated output based at least in part on the one or more operational parameters being below the threshold ; and operating the variable frequency drive to produce a second modulated output based at least in part on at least one of the one or more operational parameters exceeding the threshold ; characterised in that the second modulated output is produced by the variable frequency drive for a first time period.
A pharmaceutical composition comprising a therapeutically effective amount of anti-GPC3 chimeric antigen receptor (CAR) immunoresponsive cells for use in the treatment of a solid tumor in a subject, wherein the treatment comprises administering to the subject the pharmaceutical composition after or concurrent with subjecting the subject to a lymphocyte reduction treatment, wherein the lymphocyte reduction treatment comprises administering cyclophosphamide and fludarabine to the subject and wherein the anti-GPC3 CAR immunoresponsive cells are T cells (anti-GPC3 CAR T cells).
A method for receiving a downlink control channel, the method performed by a wireless device and comprising: monitoring the downlink control channel, wherein the downlink control channel is repeated on a plurality of subframes for a coverage enhancement, wherein the downlink control channel is an enhanced physical downlink control channel, EPDCCH, or a machine type communication, MTC, dedicated enhanced physical downlink control channel, MPDCCH, wherein one or more resource elements, REs, on which cell-specific reference signals, CRSs, are transmitted, are not used for a transmission of the downlink control channel, wherein the transmission of the downlink control channel is not performed in a corresponding subframe on which synchronization signals are transmitted, wherein the downlink control channel is monitored in a cell-specific search space, CSS, within a narrow band, wherein the downlink control channel is transmitted based on a localized transmission mode or a distributed transmission mode, and wherein the distributed transmission mode is used for the CSS, wherein the transmission of the downlink control channel is allocated to a subframe preceding the corresponding subframe on which synchronization signals are transmitted, and wherein a downlink assignment index, DAI, field within a downlink grant transmitted through the downlink control channel is used to indicate a subframe through which a physical downlink control channel, PDSCH, scheduled by the downlink grant, is transmitted. monitoring the downlink control channel, wherein the downlink control channel is repeated on a plurality of subframes for a coverage enhancement, wherein the downlink control channel is an enhanced physical downlink control channel, EPDCCH, or a machine type communication, MTC, dedicated enhanced physical downlink control channel, MPDCCH, wherein one or more resource elements, REs, on which cell-specific reference signals, CRSs, are transmitted, are not used for a transmission of the downlink control channel, wherein the transmission of the downlink control channel is not performed in a corresponding subframe on which synchronization signals are transmitted, wherein the downlink control channel is monitored in a cell-specific search space, CSS, within a narrow band, wherein the downlink control channel is transmitted based on a localized transmission mode or a distributed transmission mode, and wherein the distributed transmission mode is used for the CSS, wherein the transmission of the downlink control channel is allocated to a subframe preceding the corresponding subframe on which synchronization signals are transmitted, and wherein a downlink assignment index, DAI, field within a downlink grant transmitted through the downlink control channel is used to indicate a subframe through which a physical downlink control channel, PDSCH, scheduled by the downlink grant, is transmitted.
An authentication device comprising a woven authentication pattern , wherein the woven authentication pattern comprises a plurality of pattern forming woven elements each comprising a plurality of pattern defining elements , J characterized in that , J each pattern forming woven element is formed by a plurality of threads having contrasting optical or visual properties in twisted mutual engagement, wherein said pattern defining element has a spiralling outline or boundary and adjacent or abutting pattern defining elements of a pattern forming woven element are visually or optically distinguishable.
A method for displaying at least one light field based image on a user's device , the method comprising: determining, by the user's device, at least one position parameter and at least one orientation parameter of the user's device; determining a slice image as an intersection of a focal stack (100; 500) corresponding to the at least one light field based image with an intersection plane depending on the at least one position parameter and the at least one orientation parameter of the user's device, wherein a position of the slice image within the focal stack (100; 500) is based on a position of the user's device relative to a reference system; and displaying (S704) the slice image on the user's device. determining, by the user's device, at least one position parameter and at least one orientation parameter of the user's device; determining a slice image as an intersection of a focal stack (100; 500) corresponding to the at least one light field based image with an intersection plane depending on the at least one position parameter and the at least one orientation parameter of the user's device, wherein a position of the slice image within the focal stack (100; 500) is based on a position of the user's device relative to a reference system; and displaying (S704) the slice image on the user's device.
A method for identifying a position of a surface on an aircraft , comprising: receiving image data for an image of the surface on the aircraft; processing the image data to identify characteristics of a feature in the image corresponding to the position of the surface on the aircraft; determining characteristics of an expected feature in the image corresponding to a desired position of the surface; and comparing the characteristics of the feature in the image to the characteristics of the expected feature to determine whether the position of the surface on the aircraft is the desired position, wherein the method further comprises: identifying an angle of lighting at the surface on the aircraft; and determining the characteristics of the expected feature in the image using the angle of lighting at the surface on the aircraft. receiving image data for an image of the surface on the aircraft; processing the image data to identify characteristics of a feature in the image corresponding to the position of the surface on the aircraft; determining characteristics of an expected feature in the image corresponding to a desired position of the surface; and comparing the characteristics of the feature in the image to the characteristics of the expected feature to determine whether the position of the surface on the aircraft is the desired position, wherein the method further comprises: identifying an angle of lighting at the surface on the aircraft; and determining the characteristics of the expected feature in the image using the angle of lighting at the surface on the aircraft. identifying an angle of lighting at the surface on the aircraft; and determining the characteristics of the expected feature in the image using the angle of lighting at the surface on the aircraft.
A method of producing non-immunogenic nanoparticles, comprising: providing a hydrophobic water-insoluble protein; dissolving said protein with a hydroalcoholic solvent to provide a first aqueous phase solution; adding a buffering agent to the first aqueous phase solution in the presence of a surfactant and a phospholipid to produce a second aqueous phase solution having a pH of between pH 6.8 and 7.4, processing said second aqueous phase solution to effect a reduction in diameter size of particles within the solution; evaporating any residual solvent to produce nanoparticles having a diameter size of less than 400 nm; centrifuging said nanoparticles; lyophilizing the nanoparticles following centrifugation, wherein the surfactant is a nonionic surfactant. providing a hydrophobic water-insoluble protein; dissolving said protein with a hydroalcoholic solvent to provide a first aqueous phase solution; adding a buffering agent to the first aqueous phase solution in the presence of a surfactant and a phospholipid to produce a second aqueous phase solution having a pH of between pH 6.8 and 7.4, processing said second aqueous phase solution to effect a reduction in diameter size of particles within the solution; evaporating any residual solvent to produce nanoparticles having a diameter size of less than 400 nm;