mhurhangee/patent-ind-claim-en huggingface dataset:
Conveying system comprising an endlessly closed conveying belt , at least one inspection device , acting in a destruction-free manner, for inspecting the conveying belt , wherein the inspection device can generate and output a result of the inspection, a plurality of settable conveying system elements , and at least one control unit , which can set the settable conveying system elements in dependence of the result from the inspection, wherein a settable conveying system element is a drive drum , wherein a settable conveying system element is a deflection drum , and characterized in that a settable conveying system element is a scraper , and in that the control unit and/or the inspection device classify the result from the inspection and the control unit can set the settable conveying system element in dependence on the classification of the result from the inspection. an endlessly closed conveying belt , at least one inspection device , acting in a destruction-free manner, for inspecting the conveying belt , wherein the inspection device can generate and output a result of the inspection, a plurality of settable conveying system elements , and at least one control unit , which can set the settable conveying system elements in dependence of the result from the inspection, wherein a settable conveying system element is a drive drum , wherein a settable conveying system element is a deflection drum , and characterized in that a settable conveying system element is a scraper , and in that the control unit and/or the inspection device classify the result from the inspection and the control unit can set the settable conveying system element in dependence on the classification of the result from the inspection.
An electrical tilt apparatus, comprising: a remote control unit, RCU, and at least two combiner units and multiple phase shifters that are connected to the RCU, wherein each of the at least two combiner units is configured to: connect to a different serial port on the RCU and connect to at least two radio frequency, RF, modules ; receive, at a time point, an electrical tilt signal which comprises an on-off-keying, OOK, signal and a direct current voltage signal, and separate the OOK signal and the direct current voltage signal and send the separated OOK signal and direct current voltage signal to the serial port of the RCU connected to the respective combiner, wherein the at least two RF modules are configured such that the electrical tilt signal is received from one of the at least two RF modules one at a time; and the RCU is configured to: receive the separated OOK signal and direct current voltage signal sent by each combiner unit, use the direct current voltage to supply power to the RCU, and drive, according to the OOK signal, a first phase shifter that corresponds to a first RF module to move, to adjust a phase of an RF signal that is input to the first phase shifter, wherein the first RF module is an RF module sending the electrical tilt signal and the RF signal, and the first phase shifter is one of the multiple phase shifters; the first phase shifter is configured to input the RF signal whose phase has been adjusted to multiple antenna elements connected to the first phase shifter.
Drive unit for a motor vehicle, with a differential gear for the distribution of a drive moment suppliable via a drive shaft onto two output shafts and an superposition transmission , coupled with the differential gear , one of the output shafts and an additional motor , for superimposing torques supplied by the output shaft , the differential gear and the additional motor , wherein the differential gear is coupled via a moment-reducing transmission device with the superposition transmission , wherein the superposition transmission includes a switching apparatus controllable by a control device , wherein the superposition transmission in a first switching state of the switching apparatus superimposes the torques supplied by the output shaft , the differential gear and the additional motor such that the distribution of the drive moment onto the output shafts depends on an additional torque applied by the additional motor , characterised in that the superposition transmission in a second switching state of the switching apparatus superimposes the torques supplied by the output shaft , the differential gear and the additional motor such that the additional torque is distributed equally onto both output shafts .
Power converter cabinet , comprising: a cabinet housing comprising a first aperture for receiving a stream of cooling air, and comprising a second aperture for releasing the stream of cooling air thereafter in an operating state of the cabinet ; at least two power converter modules , each module comprising a guiding structure for guiding the cooling air with an inlet and an outlet for guiding the cooling air through each module ; wherein the at least two power converter modules are arranged in the cabinet housing such that a major portion of the stream of cooling air flowing through the first aperture of said cabinet housing is divided into partial streams of cooling air, at least some of the partial streams being enabled to flow into their dedicated module via the inlet through the dedicated module to the outlet of the dedicated module respectively such that at least two of the partial streams of cooling air are connected in parallel to one another and thereafter leave the cabinet together through the second aperture of the cabinet housing in an operating state of the cabinet ; wherein at least two of said at least two power converter modules comprise each a thermosiphon cooler housed within the guiding structure , which thermosiphon cooler comprises an evaporator for receiving a first heat load generated by at least one electric and/or electronic component of each module in an operating state of each module , and which thermosiphon cooler comprises a condenser for transferring a majority of said first heat load to said stream of cooling air in an operating state of the cabinet . a cabinet housing comprising a first aperture for receiving a stream of cooling air, and comprising a second aperture for releasing the stream of cooling air thereafter in an operating state of the cabinet ; at least two power converter modules , each module comprising a guiding structure for guiding the cooling air with an inlet and an outlet for guiding the cooling air through each module ; wherein the at least two power converter modules are arranged in the cabinet housing such that a major portion of the stream of cooling air flowing through the first aperture of said cabinet housing is divided into partial streams of cooling air, at least some of the partial streams being enabled to flow into their dedicated module via the inlet through the dedicated module to the outlet of the dedicated module respectively such that at least two of the partial streams of cooling air are connected in parallel to one another and thereafter leave the cabinet together through the second aperture of the cabinet housing in an operating state of the cabinet ; wherein at least two of said at least two power converter modules comprise each a thermosiphon cooler housed within the guiding structure , which thermosiphon cooler comprises an evaporator for receiving a first heat load generated by at least one electric and/or electronic component of each module in an operating state of each module , and which thermosiphon cooler comprises a condenser for transferring a majority of said first heat load to said stream of cooling air in an operating state of the cabinet .
A remote operation assistance device, comprising: a state detection element configured to detect a motion state of a working machine or an operation aspect of a remote operation device, the remote operation device being configured to remotely control the working machine; and a point sound source control element configured to control individual sound output aspects of a plurality of sound output devices to displace a virtual point sound source (SP1) a specified position path (tr1, tr2) when a motion state of the working machine or an operation aspect of the remote operation device represents a relative motion of a second component with respect to a first component, the plurality of sound output devices each being arranged at different locations in a remote operation space for an operator who operates the remote operation device, the first component and the second component constituting the working machine, the specified position path being determined according to a relative motion aspect of the second component with respect to the first component, the motion state of the working machine or the operation aspect of the remote operation device being detected by the state detection element. a state detection element configured to detect a motion state of a working machine or an operation aspect of a remote operation device, the remote operation device being configured to remotely control the working machine; and a point sound source control element configured to control individual sound output aspects of a plurality of sound output devices to displace a virtual point sound source (SP1) a specified position path (tr1, tr2) when a motion state of the working machine or an operation aspect of the remote operation device represents a relative motion of a second component with respect to a first component, the plurality of sound output devices each being arranged at different locations in a remote operation space for an operator who operates the remote operation device, the first component and the second component constituting the working machine, the specified position path being determined according to a relative motion aspect of the second component with respect to the first component, the motion state of the working machine or the operation aspect of the remote operation device being detected by the state detection element.
A cutting method, particularly for manufacturing pouches of flexible containers with rounded corners such as Doypacks and the like, comprising the steps of: - stepwise advancement of at least one, preferably multilayer, ribbon along a substantially rectilinear feeding direction (D), said ribbon comprising a plurality of recesses along at least one longitudinal edge thereof that is substantially parallel to said feeding direction (D); - transverse cutting from one longitudinal edge to the other of said ribbon and substantially at each one of said recesses , said transverse cut being performed by means of at least one blade , said at least one blade being movable with respect to said ribbon substantially along a cutting plane that is transverse to said at least one ribbon and to said feeding direction (D); characterized in that substantially at each one of said recesses , said transverse cutting of the ribbon is performed by means of at least two strokes (C1, C2) of said at least one blade , and in that between a first stroke (C1) and a second stroke (C2) of said at least two strokes of said at least one blade a relative translation (S) is performed between said cutting plane and said ribbon substantially along said feeding direction (D), so as to level with said second stroke (C2) any cutting defects of the first stroke (C1) in the region of said recess . - stepwise advancement of at least one, preferably multilayer, ribbon along a substantially rectilinear feeding direction (D), said ribbon comprising a plurality of recesses along at least one longitudinal edge thereof that is substantially parallel to said feeding direction (D); - transverse cutting from one longitudinal edge to the other of said ribbon and substantially at each one of said recesses , said transverse cut being performed by means of at least one blade , said at least one blade being movable with respect to said ribbon substantially along a cutting plane that is transverse to said at least one ribbon and to said feeding direction (D); characterized in that substantially at each one of said recesses , said transverse cutting of the ribbon is performed by means of at least two strokes (C1, C2) of said at least one blade , and in that between a first stroke (C1) and a second stroke (C2) of said at least two strokes of said at least one blade a relative translation (S) is performed between said cutting plane and said ribbon substantially along said feeding direction (D), so as to level with said second stroke (C2) any cutting defects of the first stroke (C1) in the region of said recess .
A computer-implemented method for estimating a value of a given transient tire load of at least one wheel of a vehicle at a given time frame, the method comprising the steps of: acquiring a value of a given equilibrium tire load of the at least one wheel of the vehicle at the given time frame; obtaining at least one value of the equilibrium tire load of the at least one wheel of the vehicle at at least one time frame before the given time frame; obtaining at least one value of the transient tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame; and determining the value of the given transient tire load of the at least one wheel of the vehicle based on: the value of the given equilibrium tire load of the at least one wheel of the vehicle at the given time frame, the at least one value of the equilibrium tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame, and the at least one value of the transient tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame. acquiring a value of a given equilibrium tire load of the at least one wheel of the vehicle at the given time frame; obtaining at least one value of the equilibrium tire load of the at least one wheel of the vehicle at at least one time frame before the given time frame; obtaining at least one value of the transient tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame; and determining the value of the given transient tire load of the at least one wheel of the vehicle based on: the value of the given equilibrium tire load of the at least one wheel of the vehicle at the given time frame, the at least one value of the equilibrium tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame, and the at least one value of the transient tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame. the value of the given equilibrium tire load of the at least one wheel of the vehicle at the given time frame, the at least one value of the equilibrium tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame, and the at least one value of the transient tire load of the at least one wheel of the vehicle at the at least one time frame before the given time frame.
A connecting system for connecting an electric parking brake mechanism and a wheel speed sensor of a vehicle with a controller, comprising: a control module configured to control the electric parking brake mechanism and the wheel speed sensor; a cable having a first end and a second end, comprising: a ground wire and a power wire ; a first diode associated with the electric parking brake mechanism; and a second diode associated with the wheel speed sensor, characterized in that (i) a positive terminal of the first diode associated with the electric parking brake mechanism is connected to a power terminal of the electric parking brake mechanism; and wherein a negative terminal of the second diode associated with the wheel speed sensor is connected to a power terminal of the wheel speed sensor, and the negative terminal of said first diode is connected to said power wire and the positive terminal of said second diode is connected to said power wire ; and wherein the electric parking brake mechanism and the wheel speed sensor are connected to the control module by the ground wire and the power wire . a control module configured to control the electric parking brake mechanism and the wheel speed sensor; a cable having a first end and a second end, comprising: a ground wire and a power wire ; a first diode associated with the electric parking brake mechanism; and a second diode associated with the wheel speed sensor, characterized in that (i) a positive terminal of the first diode associated with the electric parking brake mechanism is connected to a power terminal of the electric parking brake mechanism; and wherein a negative terminal of the second diode associated with the wheel speed sensor is connected to a power terminal of the wheel speed sensor, and the negative terminal of said first diode is connected to said power wire and the positive terminal of said second diode is connected to said power wire ; and wherein the electric parking brake mechanism and the wheel speed sensor are connected to the control module by the ground wire and the power wire . (i) a positive terminal of the first diode associated with the electric parking brake mechanism is connected to a power terminal of the electric parking brake mechanism; and wherein a negative terminal of the second diode associated with the wheel speed sensor is connected to a power terminal of the wheel speed sensor, and the negative terminal of said first diode is connected to said power wire and the positive terminal of said second diode is connected to said power wire ; and wherein the electric parking brake mechanism and the wheel speed sensor are connected to the control module by the ground wire and the power wire .
A method of tracing transactions in real time through a distributed network of a plurality of financial institutions managing a plurality of bank accounts performed by processing circuitry of an apparatus , the method comprising: receiving (S1302) message information corresponding to a first outbound transaction from a bank account managed by a first financial institution of the distributed network to a bank account managed by a second financial institution of the distributed network, the message information comprising a first source identifier identifying the bank account from which the transaction originates and a first destination identifier identifying the bank account to which the transaction is made; determining (S1304) in real time whether the first source identifier is associated with a set of previous transactions in a storage unit, the set of previous transactions representing a previous dispersion of funds through the distributed network represented by a dispersion tree; whereby when the first source identifier is associated with the set of previous transactions, the method comprises producing (S1306) a trace request, the trace request comprising the first destination identifier and an identifier identifying the set of previous transactions associated with the first source identifier; and sending the trace request to the second financial institution receiving the transaction. receiving (S1302) message information corresponding to a first outbound transaction from a bank account managed by a first financial institution of the distributed network to a bank account managed by a second financial institution of the distributed network, the message information comprising a first source identifier identifying the bank account from which the transaction originates and a first destination identifier identifying the bank account to which the transaction is made; determining (S1304) in real time whether the first source identifier is associated with a set of previous transactions in a storage unit, the set of previous transactions representing a previous dispersion of funds through the distributed network represented by a dispersion tree; whereby when the first source identifier is associated with the set of previous transactions, the method comprises producing (S1306) a trace request, the trace request comprising the first destination identifier and an identifier identifying the set of previous transactions associated with the first source identifier; and sending the trace request to the second financial institution receiving the transaction.
A system for treating cancer of a patient, comprising: a hemodynamic parameter monitoring system configured to detect, measure, and record a plurality of first values for each of a plurality of hemodynamic parameters exhibited by a patient during an exposure period, wherein the exposure period comprises a time period in which the patient is exposed to a plurality of electromagnetic frequency signals; an electrically-powered frequency generator adapted to generate the one or more electromagnetic signals during the exposure period, wherein the one or more electromagnetic signals is configured to influence microtubule conductivity; and a processing system configured to: synchronize the hemodynamic parameter monitoring system and the frequency generator, auto-tune a carrier signal to adjust forward energy delivered to the patient, and instruct the frequency generator to expose the patient to each of the plurality of electromagnetic frequency signals by modulating an amplitude of the carrier signal to produce a desired electromagnetic frequency signal, wherein the amplitude modulated electromagnetic signal is selected from within a range of 10 Hz to 2,000 Hz and the amplitude modulated electromagnetic signal is configured to influence a cellular function of the patient. a hemodynamic parameter monitoring system configured to detect, measure, and record a plurality of first values for each of a plurality of hemodynamic parameters exhibited by a patient during an exposure period, wherein the exposure period comprises a time period in which the patient is exposed to a plurality of electromagnetic frequency signals; an electrically-powered frequency generator adapted to generate the one or more electromagnetic signals during the exposure period, wherein the one or more electromagnetic signals is configured to influence microtubule conductivity; and a processing system configured to: synchronize the hemodynamic parameter monitoring system and the frequency generator, auto-tune a carrier signal to adjust forward energy delivered to the patient, and instruct the frequency generator to expose the patient to each of the plurality of electromagnetic frequency signals by modulating an amplitude of the carrier signal to produce a desired electromagnetic frequency signal, wherein the amplitude modulated electromagnetic signal is selected from within a range of 10 Hz to 2,000 Hz and the amplitude modulated electromagnetic signal is configured to influence a cellular function of the patient. synchronize the hemodynamic parameter monitoring system and the frequency generator, auto-tune a carrier signal to adjust forward energy delivered to the patient, and instruct the frequency generator to expose the patient to each of the plurality of electromagnetic frequency signals by modulating an amplitude of the carrier signal to produce a desired electromagnetic frequency signal, wherein the amplitude modulated electromagnetic signal is selected from within a range of 10 Hz to 2,000 Hz and the amplitude modulated electromagnetic signal is configured to influence a cellular function of the patient.