mhurhangee/ep-ind-claims huggingface dataset:
Method for controlling a heating system of a building, comprising the steps of: - providing a first setpoint value of a control variable to be controlled by the heating system of the building for a first point in time; - detecting a presence of at least one person in the building at the first point in time, comprising detecting a change made by the at least one person at the first point in time in an operating variable of an energy supply system of the building; - determining a second setpoint value of the control variable to be controlled for a second, later point in time as a function of a detection result from the step of detecting a presence; and - controlling the heating system as a function of the determined second setpoint value; characterized by - determining the future second point in time relative to the first point in time on the basis of the first point in time; and - determining a probability value which describes a probability of the presence of the at least one person in the building at the second point in time as a function of the detection result from the step of detecting a presence at the first point in time; wherein the determination of the second setpoint value of the control variable to be controlled for the second point in time takes place as a function of the provided first setpoint value and the probability value determined on the basis of the detection result. - providing a first setpoint value of a control variable to be controlled by the heating system of the building for a first point in time; - detecting a presence of at least one person in the building at the first point in time, comprising detecting a change made by the at least one person at the first point in time in an operating variable of an energy supply system of the building; - determining a second setpoint value of the control variable to be controlled for a second, later point in time as a function of a detection result from the step of detecting a presence; and - controlling the heating system as a function of the determined second setpoint value; characterized by - determining the future second point in time relative to the first point in time on the basis of the first point in time; and - determining a probability value which describes a probability of the presence of the at least one person in the building at the second point in time as a function of the detection result from the step of detecting a presence at the first point in time;
A method to compensate the impact of ambient light-generated photo diode current on a signal light-generated current by the photo diode, comprising the following steps: step 1: providing a light receiving photo diode receiving a signal light pulse from a light source, a front end system comprising a continuous-time programmable transresistance amplifier converting input current through multi-scaled feedback resistors into a voltage, a digital calibration and correction unit, an analog-to digital converter and digital-to-analog converters (7, 8, 14); step 2: calibrating said front-end system by digitally correcting each raw output of the analog-to-digital converters and providing calibration currents by extracting gain and offset errors while the photo diode is disconnected from the front-end system; step 3: compensating ambient light current by generating a coarse compensation current and a fine compensation current wherein both compensation currents subtract ambient light current from the photo diode output current at an input of the front end system; step 4: go back to step 2 if system is ON, otherwise go to step 5: and step 5: end. step 1: providing a light receiving photo diode receiving a signal light pulse from a light source, a front end system comprising a continuous-time programmable transresistance amplifier converting input current through multi-scaled feedback resistors into a voltage, a digital calibration and correction unit, an analog-to digital converter and digital-to-analog converters (7, 8, 14); step 2: calibrating said front-end system by digitally correcting each raw output of the analog-to-digital converters and providing calibration currents by extracting gain and offset errors while the photo diode is disconnected from the front-end system; step 3: compensating ambient light current by generating a coarse compensation current and a fine compensation current wherein both compensation currents subtract ambient light current from the photo diode output current at an input of the front end system; step 4: go back to step 2 if system is ON, otherwise go to step 5: and step 5: end.
Braking and/or clamping apparatus for attachment to a slide element guided to move in parallel with a guide rail, comprising - at least two brake jaws (91, 92) provided on a basic body in a mutually opposing relationship to contact guide rail for braking or clamping, - the basic body embracing sections of guide rail like a clamp and forming a flange zone extending above the guide rail and lateral zones (11, 12) on the right and left sides of the guide rail to carry brake jaws (91, 92), and - the flange zone and the lateral zones (11, 12) forming in the basic body a groove partly embracing the guide rail, characterized in that - the basic body has its top mounted firmly to the supporting slide element, - the basic body has disposed between its front and rear end faces (21, 22) a cavity, said cavity being adapted to be pressurized and extending at least along sections of the flange zone and the lateral zones (11, 12), - the sections of a one-part cavity are arranged at least section-wise along the groove in the basic body and along the externally extending sidewalls (17, 18) of the basic body, - the section of the cavity which embrace the groove in said basic body and the sections (56, 57) of cavity which are placed in pairs along the side walls (17, 18) of the basic body are used in combination and - the cavity is closed in the areas of the end faces (21, 22). - at least two brake jaws (91, 92) provided on a basic body in a mutually opposing relationship to contact guide rail for braking or clamping, - the basic body embracing sections of guide rail like a clamp and forming a flange zone extending above the guide rail and lateral zones (11, 12) on the right and left sides of the guide rail to carry brake jaws (91, 92), and - the flange zone and the lateral zones (11, 12) forming in the basic body a groove partly embracing the guide rail, - the basic body has its top mounted firmly to the supporting slide element, - the basic body has disposed between its front and rear end faces (21, 22) a cavity, said cavity being adapted to be pressurized and extending at least along sections of the flange zone and the lateral zones (11, 12), - the sections of a one-part cavity are arranged at least section-wise along the groove in the basic body and along the externally extending sidewalls (17, 18) of the basic body, - the section of the cavity which embrace the groove in said basic body and the sections (56, 57) of cavity which are placed in pairs along the side walls (17, 18) of the basic body are used in combination and - the cavity is closed in the areas of the end faces (21, 22).
A microwave phase shifter, comprising: a non-rotating linear-to-circular polarization converter with a squared cross section, located at one end of the phase shifter; a non-rotating circular-to-linear polarization converter with a squared cross section, located at the opposite end of the phase shifter, wherein the circular-to-linear polarization converter has an opposite conversion of polarization rotation than the linear-to-circular polarization converter; a rotatable squared waveguide with a circular-to-linear-to-circular polarization converter, positioned at a middle section of the phase shifter; rotary joints (5, 6) with a circular cross section for rotating the rotatable squared waveguide, the rotary joints (5, 6) being located at both ends of the rotatable squared waveguide; characterized in that the phase shifter further comprises mode launchers (3, 4, 7, 8) for adapting the squared waveguides (1, 2, 9) to the circular cross section of the rotary joints (5, 6); wherein the linear-to-circular polarization converter comprises a first septum polarizer and the circular-to-linear polarization converter comprises a second septum polarizer, parallel to the first septum polarizer; and wherein the circular-to-linear-to-circular polarization converter of the rotatable squared waveguide comprises a double symmetric septum polarizer, such that the angular difference between the plane that holds the first and second septum polarizers and the plane that contains the double symmetric septum polarizer specifies the shifting in phase of the microwave signal. a non-rotating linear-to-circular polarization converter with a squared cross section, located at one end of the phase shifter; a non-rotating circular-to-linear polarization converter with a squared cross section, located at the opposite end of the phase shifter, wherein the circular-to-linear polarization converter has an opposite conversion of polarization rotation than the linear-to-circular polarization converter; a rotatable squared waveguide with a circular-to-linear-to-circular polarization converter, positioned at a middle section of the phase shifter; rotary joints (5, 6) with a circular cross section for rotating the rotatable squared waveguide, the rotary joints (5, 6) being located at both ends of the rotatable squared waveguide;
A method implemented at least in part by master user equipment comprising: obtaining radio resource information of slave user equipment in cellular communication, the radio resource information including existing cellular radio resource configuration information and radio capability information; performing a first radio resource configuration for device-to-device (D2D) communication between the master user equipment and the slave user equipment based on the radio resource information, and determining a remaining capability of the slave user equipment for a future second radio resource configuration for D2D communication based on the radio resource information. obtaining radio resource information of slave user equipment in cellular communication, the radio resource information including existing cellular radio resource configuration information and radio capability information; performing a first radio resource configuration for device-to-device (D2D) communication between the master user equipment and the slave user equipment based on the radio resource information, and determining a remaining capability of the slave user equipment for a future second radio resource configuration for D2D communication based on the radio resource information.
Recording electrode for recording EMG potentials during intraoperative recurrence monitoring for identification and functional control of the recurrent laryngeal nerve during a surgical procedure, characterised by at least two hook elements which can be adjusted relative to each other using a spring element and have or form contact areas and can be clamped under the effect of a prestressing force of the spring element on the prepared thyroid cartilage of a patient.
A computer-implemented method for simulating a downhole fracture network, the method comprising: determining a seed point for the downhole fracture network within a constraint volume, the seed point representing a vertex of a first triangle forming part of the downhole fracture network; propagating one or more hexagonal orbits of triangles adjacent the first triangle, whereby the hexagonal orbits of triangles form the downhole fracture network; determining a size of each triangle based upon dimensions of the downhole fracture network, wherein determining the size of each triangle comprises: defining a maximum number of hexagonal orbits; and if a number of the propagated hexagonal orbits exceeds the maximum number of hexagonal orbits, setting the number of propagated hexagonal orbits to the maximum number of hexagonal orbits, thereby determining a size of each triangle; and generating the downhole fracture network. determining a seed point for the downhole fracture network within a constraint volume, the seed point representing a vertex of a first triangle forming part of the downhole fracture network; propagating one or more hexagonal orbits of triangles adjacent the first triangle, whereby the hexagonal orbits of triangles form the downhole fracture network; determining a size of each triangle based upon dimensions of the downhole fracture network, wherein determining the size of each triangle comprises: defining a maximum number of hexagonal orbits; and if a number of the propagated hexagonal orbits exceeds the maximum number of hexagonal orbits, setting the number of propagated hexagonal orbits to the maximum number of hexagonal orbits, thereby determining a size of each triangle; and defining a maximum number of hexagonal orbits; and if a number of the propagated hexagonal orbits exceeds the maximum number of hexagonal orbits, setting the number of propagated hexagonal orbits to the maximum number of hexagonal orbits, thereby determining a size of each triangle; and generating the downhole fracture network.
Assembly including an avionics cabinet and a module, said avionics cabinet having a plurality of slots, said module being intended to be inserted into one of the slots of the avionics cabinet according to a longitudinal axis and to be reversibly held fixed therein in a so-called operative position, the module including a first face (21, 22, 23, 24), intended to be opposite a first wall (11, 13, 12, 14) of the avionics cabinet, characterised in that, for each slot, the first wall (11, 13, 12, 14) of the avionics cabinet includes a first optical network including first optical emitter units and first optical receiver units, in that the first face (21, 22, 23, 24) of the module includes a second optical network including second optical emitter units and second optical receiver units, and in that when the module is in the operative position in the avionics cabinet, the first optical network and the second optical network are remote from each other by a predefined distance (d) and, in that: - each second optical emitter unit of the first face (21, 22, 23, 24) of the module is disposed opposite a first optical receiver unit of the first wall (11, 13, 12, 14) of the avionics cabinet to ensure an optical link between said units, - each second optical receiver unit of the first face (21, 22, 23, 24) of the module is disposed opposite a first optical emitter unit of the first wall (11, 13, 12, 14) of the avionics cabinet to ensure an optical link between said units. - each second optical emitter unit of the first face (21, 22, 23, 24) of the module is disposed opposite a first optical receiver unit of the first wall (11, 13, 12, 14) of the avionics cabinet to ensure an optical link between said units, - each second optical receiver unit of the first face (21, 22, 23, 24) of the module is disposed opposite a first optical emitter unit of the first wall (11, 13, 12, 14) of the avionics cabinet to ensure an optical link between said units.
A segment conveyor (7, 7') adapted to convey groups of rod-like articles while maintaining mutual orientation in the group, comprising: transport segments (30, 30') containing a transport pocket (32, 32') for receiving groups of rod-like articles and determining the mutual orientation of the rod-like articles, whereas the transport segments (30, 30') are connected with one another by pivotal joints to form a chain so that an axis of the transport pocket (32, 32') of the transport segment (30, 30') is situated substantially perpendicular to a longitudinal axis of the transport segment (30, 30') connecting the joints of the transport segment (30, 30'), characterised in that the transport segment (30, 30') is rotatably mounted, whereas the transport segment (30, 30') is adapted to rotate about the longitudinal axis of the transport segment (30, 30') connecting the joints of the transport segment (30, 30'). transport segments (30, 30') containing a transport pocket (32, 32') for receiving groups of rod-like articles and determining the mutual orientation of the rod-like articles, whereas the transport segments (30, 30') are connected with one another by pivotal joints to form a chain so that an axis of the transport pocket (32, 32') of the transport segment (30, 30') is situated substantially perpendicular to a longitudinal axis of the transport segment (30, 30') connecting the joints of the transport segment (30, 30'),
A device for reducing interference signals additively superposed on a useful signal during sheath fault location on buried lines, wherein the device has a signal input, a signal output and a correction unit (415, 417, 419) with a filter, a delay device and a DC component estimator, wherein the input signal (x(t)) is applied at the signal input, which is an additive superposition of a transmit signal (s(t)) with an interference signal, wherein the transmit signal (s(t)) is a pulsed DC voltage signal, and wherein the interference signal is a transient interference signal or a superposed DC voltage, wherein an interference time constant is greater than a transmit signal period, and wherein the correction unit automatically determines a correction signal and impresses the latter on the input signal, so that the useful signal is applied at the signal output, wherein the correction unit is set up to - filter the input signal (x(t)) by means of the filter, and compensate a filter delay by means of the delay device, so that an intermediate useful signal (y(t)) is present, as well as to - estimate a steady component (A DC) of the useful signal by means of the DC voltage component estimator and impress it on the intermediate useful signal (y(t)). - filter the input signal (x(t)) by means of the filter, and compensate a filter delay by means of the delay device, so that an intermediate useful signal (y(t)) is present, as well as to - estimate a steady component (A DC) of the useful signal by means of the DC voltage component estimator and impress it on the intermediate useful signal (y(t)).
A debris storage tank emptying system comprising, a storage tank with an inner floor and an opening therein for emptying debris; a pusher plate, configured to push debris out of the opening of the storage tank, movable within said storage tank between a retracted position and an extended position, wherein the extended position is close to the opening of said storage tank; an extension arm positioned within said storage tank between said pusher plate and the opening of said storage tank and configured to move with said pusher plate; wherein said extension arm extends beyond the opening in said storage tank when said pusher plate is in the extended position; and an extension plate attached to said extension arm, wherein said extension plate is configured to push debris, and wherein said extension arm is sized to support said extension plate inside said storage tank when said pusher plate is fully retracted; characterised in that: said extension arm is pivotally attached to said pusher plate.
A wave energy converter intended to be placed in a body of water subjected to wave motion includes: (a) a float tending to move in phase with the waves; (b) a spar tending to move out of phase with the float; and (c) a PTO coupled between the float and spar for converting their relative force and motion of into electrical energy, and wherein the PTO includes: a thrust rod responsive to motion between the float and spar for transmitting linear reciprocating force; said thrust rod connected to a toothed rack assembly for causing the rack assembly to move back and forth in response to the relative movement of the float and the spar; a pinion gear engagingly connected to the rack assembly for converting its linear motion to rotary motion; said pinion gear being connected to a shaft for driving a generator; said generator including a rotor having more than eight magnetic poles and a stator having a plurality of coils, and said shaft being connected to one of said rotor and stator for causing it to rotate about the other one of said rotor and stator and producing electrical signals in said coils characterized in that the PTO is located within the spar and wherein said thrust rod extends from the PTO within the spar to the float and wherein the forces generated by movement of the float are transferred to the thrust rod via a ball joint for enabling the float to rotate with respect to the thrust rod while still allowing for vertical loads to be transmitted to the PTO. a thrust rod responsive to motion between the float and spar for transmitting linear reciprocating force; said thrust rod connected to a toothed rack assembly for causing the rack assembly to move back and forth in response to the relative movement of the float and the spar; a pinion gear engagingly connected to the rack assembly for converting its linear motion to rotary motion; said pinion gear being connected to a shaft for driving a generator; said generator including a rotor having more than eight magnetic poles and a stator having a plurality of coils, and said shaft being connected to one of said rotor and stator for causing it to rotate about the other one of said rotor and stator and producing electrical signals in said coils characterized in that the PTO is located within the spar and wherein said thrust rod extends from the PTO within the spar to the float and wherein the forces generated by movement of the float are transferred to the thrust rod via a ball joint for enabling the float to rotate with respect to the thrust rod while still allowing for vertical loads to be transmitted to the PTO.
A composition comprising VEGF-A for use in a method of promoting lung growth in a subject, the method comprising: identifying a subject in need of promoting lung growth; and administering to the subject an effective amount of the composition, wherein the composition is administered through respiratory tract by inhalation, the subject is a newborn, a child, or an adult, and wherein the subject has pulmonary hypoplasia or congenital diaphragmatic hernia. identifying a subject in need of promoting lung growth; and administering to the subject an effective amount of the composition, wherein the composition is administered through respiratory tract by inhalation, the subject is a newborn, a child, or an adult, and wherein the subject has pulmonary hypoplasia or congenital diaphragmatic hernia.