mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communications by a base station, BS, comprising: providing unicast coverage to one or more user equipments, UEs, in a unicast coverage area within a larger coverage area; transmitting unicast data in one or more unicast subframes of a standalone broadcast carrier for which synchronization, channel setup and broadcast data reception are performed within that carrier; transmitting synchronization signals in at least one of the one or more unicast subframes; and transmitting synchronization signals within one or more broadcast subframes of the standalone broadcast carrier, wherein the synchronization signals are transmitted as single frequency network, SFN, transmissions synchronized with transmissions from one or more other base stations providing unicast coverage within the larger coverage area. providing unicast coverage to one or more user equipments, UEs, in a unicast coverage area within a larger coverage area; transmitting unicast data in one or more unicast subframes of a standalone broadcast carrier for which synchronization, channel setup and broadcast data reception are performed within that carrier; transmitting synchronization signals in at least one of the one or more unicast subframes; and transmitting synchronization signals within one or more broadcast subframes of the standalone broadcast carrier, wherein the synchronization signals are transmitted as single frequency network, SFN, transmissions synchronized with transmissions from one or more other base stations providing unicast coverage within the larger coverage area.
A method for producing caviar or a caviar-like product from live, mature, ovulated eggs from fish or crustaceans which have three or more layers in the egg envelope, wherein the live, mature, ovulated eggs are in a fertile but unfertilised state and have a natural potassium content in the egg plasma, by treatment of the live, mature, ovulated eggs in a 0.6 percent to 1.0 percent saline solution and subsequently in at least one solution containing water and at least one cationic component dissolved therein which acts to stabilise the egg envelope of the live, mature, ovulated eggs, characterized in that in a potassium exposure step, potassium is dissolved in water as the cationic component in a concentration of potassium cations of between 0.1 mmol/l and 3.0 mmol/l, wherein prior to the addition of a potassium donor for the formation of the cationic component, the water is deionised and is at a temperature in the natural spawning temperature range for the fish and crustaceans of between 1°C and 29°C, and in that the live, mature, ovulated eggs are treated in the solution for a potassium exposure time of between 5 min and 30 min, wherein finally, dipping of the live, mature, ovulated eggs is carried out in a 0.6 percent to 1.0 percent saline solution.
A method for providing an embedded mammalian cell, comprising the steps of - providing a sulfated alginate having a degree of sulfation between 0.1 and 1 per monomer in aqueous solution; - reacting said sulfated alginate to form a hydrogel essentially constituted of sulfated alginate having a degree of sulfation from 0.1 to 1 per monomer in a gelation step, - providing a precursor cell, - embedding said precursor cell in said sulfated alginate hydrogel in an embedding step, thus yielding a sulfated alginate hydrogel embedded cell. - providing a sulfated alginate having a degree of sulfation between 0.1 and 1 per monomer in aqueous solution; - reacting said sulfated alginate to form a hydrogel essentially constituted of sulfated alginate having a degree of sulfation from 0.1 to 1 per monomer in a gelation step, - providing a precursor cell, - embedding said precursor cell in said sulfated alginate hydrogel in an embedding step,
Method for arranging a plurality of semiconductor seed substrates on a carrier element (1, 1a, 1b, 1c, 1d, 1e) for application of a semiconductor layer to the seed substrates, wherein the seed substrates are placed on the carrier element (1, 1a, 1b, 1c, 1d, 1e) and arranged on the carrier element (1, 1a, 1b, 1c, 1d, 1e) by means of bonding connection, the bonding connection between seed substrate and carrier element (1, 1a, 1b, 1c, 1d, 1e) comprising a semiconductor material that is used for forming the semiconductor layer, wherein the seed substrates are placed on a surface of the carrier element (1, 1a, 1b, 1c, 1d, 1e) and the bonding connection with the carrier element (1, 1a, 1b, 1c, 1d, 1e) is formed at least in some regions on lateral end faces of the seed substrates, and wherein a seed substrate is joined to the carrier element (1, 1a, 1b, 1c, 1d, 1e) and to an adjacent seed substrate by means of the bonding connection.
Hydraulic accumulator in the form of a bellows accumulator, comprising an accumulator housing, in which the bellows comprising a pre-definable number of folds forms a movable separating element between the gas side and the fluid side, a spacer apparatus being provided and arranged inside the accumulator housing, said spacer apparatus being in fluidic connection with the inside of the bellows forming an additional media chamber and assuming the form of a cup, which is attached with its opening to an open end of the bellows with a fluid-tight connection, wherein the volume of the additional media chamber formed by the cup, together with the inside of the bellows, defines the volume of the gas side, wherein, at the lower end of the accumulator housing, said housing is closed by a housing closure part, which comprises a centrally located fluid port, which leads to the fluid side located in the inner chamber, wherein - the cup in the accumulator housing is held such that it is axially immobile and, at its opening, forms the fixing side for the immobile end of the bellows or - the cup is arranged at the movable end of the bellows, the immobile end thereof being fixed on the accumulator housing and characterised in that - the housing closing part is secured by a snap ring and sealed from the accumulator housing by means of a sealing element. - the cup in the accumulator housing is held such that it is axially immobile and, at its opening, forms the fixing side for the immobile end of the bellows or - the cup is arranged at the movable end of the bellows, the immobile end thereof being fixed on the accumulator housing and characterised in that - the housing closing part is secured by a snap ring and sealed from the accumulator housing by means of a sealing element.
A method for real-time detection of viable micro-organisms comprising a. addition of a cell-permeable, phototautomeric compound to a medium comprising a micro-organism or other living cell, in which medium the phototautomeric compound does not emit fluorescence; and b. measuring the fluorescent emission of said phototautomeric compound. a. addition of a cell-permeable, phototautomeric compound to a medium comprising a micro-organism or other living cell, in which medium the phototautomeric compound does not emit fluorescence; and b. measuring the fluorescent emission of said phototautomeric compound.
Flyer winding device (10, 60) for winding a laminated core which is embodied in such a way that two or more laminated cores combine to form a stator or rotor, having a solenoid for an electric motor, wherein a flyer winding arm of the flyer winding device (10, 60) winds a conductive, insulated coil wire into one or more grooves, in particular pole horn grooves, of a winding service of the laminated core, comprising a securing device for securing the laminated core to be wound, during the winding process and a counterholding device, wherein at least one winding support surface of the counterholding device is provided, which winding support surface can be moved or pivoted in relation to that region of the winding surface of the laminated core which projects out of the groove, in particular of the pole horn groove, and the winding support surface has at least one coil-shaping element, as a result of which the winding layer of the coil wire or a shape of a partial region, projecting out of the groove, in particular out of the pole horn groove, of the solenoid can be predefined during the winding process, characterized in that in order to position an insulating paper in a defined fashion, which insulating paper essentially insulates the winding surface of the laminated core with respect to the solenoid, an attachment gap is formed in the winding support surface, into which attachment gap the insulating paper can be placed and therefore secured during the winding process.
A method of avoiding unnecessary safety brake actuation in an elevator system, the method comprising: determining whether a true overspeed or overacceleration condition of an elevator car is present; and activating the electronic safety actuator if a true overspeed or overacceleration condition of the elevator car; characterized by: obtaining data with at least one sensor associated with an electronic safety actuator; monitoring various operating conditions of the elevator car; determining if the electronic safety actuator was activated during the various operating conditions; determining if activation of the electronic safety actuator was a false trip; and updating a data model based on the determination of whether the activation was a false trip. determining whether a true overspeed or overacceleration condition of an elevator car is present; and activating the electronic safety actuator if a true overspeed or overacceleration condition of the elevator car; characterized by: obtaining data with at least one sensor associated with an electronic safety actuator; monitoring various operating conditions of the elevator car; determining if the electronic safety actuator was activated during the various operating conditions; determining if activation of the electronic safety actuator was a false trip; and updating a data model based on the determination of whether the activation was a false trip. obtaining data with at least one sensor associated with an electronic safety actuator; monitoring various operating conditions of the elevator car; determining if the electronic safety actuator was activated during the various operating conditions; determining if activation of the electronic safety actuator was a false trip; and updating a data model based on the determination of whether the activation was a false trip.
An apparatus for operating with an antenna, comprising: - a first circuit configured and arranged to provide a modulated carrier signal, conveying data using peaks or amplitudes of the modulated carrier signal, in response to a signal provided from the antenna; - a second circuit coupled to an output of the first circuit and configured and arranged to process the modulated carrier signal, by providing a rectified version of the modulated carrier signal and by performing an integration of the rectified version of the modulated carrier signal; and - a third circuit coupled to an output of the second circuit and configured and arranged to sample the integrated signal and provide therefrom a sample-based approximation of the modulated carrier signal, wherein the third circuit includes an ADC configured to convert analog samples of the integrated signal provided from the second circuit to digital values; characterized in that the second circuit is arranged to process the modulated carrier signal in response to a first clock signal (Clk 1), wherein the first clock signal (Clk 1) is generated from the modulated carrier signal by the first circuit and is configured to indicate portions of the modulated carrier signal that correspond to peaks of the modulated carrier signal. - a first circuit configured and arranged to provide a modulated carrier signal, conveying data using peaks or amplitudes of the modulated carrier signal, in response to a signal provided from the antenna; - a second circuit coupled to an output of the first circuit and configured and arranged to process the modulated carrier signal, by providing a rectified version of the modulated carrier signal and by performing an integration of the rectified version of the modulated carrier signal; and - a third circuit coupled to an output of the second circuit and configured and arranged to sample the integrated signal and provide therefrom a sample-based approximation of the modulated carrier signal, wherein the third circuit includes an ADC configured to convert analog samples of the integrated signal provided from the second circuit to digital values; characterized in that the second circuit is arranged to process the modulated carrier signal in response to a first clock signal (Clk 1), wherein the first clock signal (Clk 1) is generated from the modulated carrier signal by the first circuit and is configured to indicate portions of the modulated carrier signal that correspond to peaks of the modulated carrier signal.
A flow cytometer system comprising: a nozzle assembly (14, 210) for producing a fluid stream (16, 236) with particles, the nozzle assembly comprising a nozzle tip (45, 46, 242) comprising: i) a cylindrical body defining a longitudinal axis; and ii) a frustoconical body P adjoining the cylindrical body on the longitudinal axis and in fluid communication with the cylindrical body, wherein the frustoconical body ends in a flat surface transverse to the longitudinal axis which has a nozzle exit orifice (44, 226); and wherein the frustoconical body further comprises a chamfer at the edge of the flat surface and the frustoconical body, said chamfer defining a proximal portion of the frustoconical body, whereby said proximal portion has a first angle of taper with respect to said flat surface that comprises between 15 and 60 degrees and wherein the distal portion of the frustoconical body has a second angle of taper, and wherein the second angle of taper is greater than the first angle of taper; a laser for producing a beam incident upon the fluid stream and the particles, wherein the focus of the laser beam in the fluid stream is placed a distance within 300 micrometers from the exit orifice; and a detector for detecting light emitted or reflected from the particles within the fluid stream in response to the beam. a nozzle assembly (14, 210) for producing a fluid stream (16, 236) with particles, the nozzle assembly comprising a nozzle tip (45, 46, 242) comprising: i) a cylindrical body defining a longitudinal axis; and ii) a frustoconical body P adjoining the cylindrical body on the longitudinal axis and in fluid communication with the cylindrical body, wherein the frustoconical body ends in a flat surface transverse to the longitudinal axis which has a nozzle exit orifice (44, 226); and i) a cylindrical body defining a longitudinal axis; and ii) a frustoconical body P adjoining the cylindrical body on the longitudinal axis and in fluid communication with the cylindrical body, wherein the frustoconical body ends in a flat surface transverse to the longitudinal axis which has a nozzle exit orifice (44, 226); and wherein the frustoconical body further comprises a chamfer at the edge of the flat surface and the frustoconical body, said chamfer defining a proximal portion of the frustoconical body, whereby said proximal portion has a first angle of taper with respect to said flat surface that comprises between 15 and 60 degrees and wherein the distal portion of the frustoconical body has a second angle of taper, and wherein the second angle of taper is greater than the first angle of taper; a laser for producing a beam incident upon the fluid stream and the particles, wherein the focus of the laser beam in the fluid stream is placed a distance within 300 micrometers from the exit orifice; and a detector for detecting light emitted or reflected from the particles within the fluid stream in response to the beam.
A measuring device for measuring a dielectricity value of a filling material present in a container, comprising: - A signal generating unit which is designed to activate a transmitting electrode using an electrical AC signal in such a way that the transmitting electrode transmits a radar signal toward the filling material, wherein the transmitting electrode can be arranged in the container, - A receiving electrode which can be arranged in the container so that it receives the radar signal once it has passed through the filling material, and - An evaluation unit which is configured to determine an amplitude, a phase shift and/or a signal duration between the transmitting electrode and the receiving electrode using the radar signal received by the receiving electrode, and to determine the dielectricity value using the ascertained signal duration, phase shift and/or the ascertained amplitude, wherein the transmitting electrode and the receiving electrode are aligned parallel to each other, wherein the transmitting electrode and the receiving electrode each comprise at least - a dielectric resonator layer and - a metallic reflective layer which is attached behind the dielectric resonator layer relative to the other electrode (11a, b). - A signal generating unit which is designed to activate a transmitting electrode using an electrical AC signal in such a way that the transmitting electrode transmits a radar signal toward the filling material, wherein the transmitting electrode can be arranged in the container, - A receiving electrode which can be arranged in the container so that it receives the radar signal once it has passed through the filling material, and - An evaluation unit which is configured to determine an amplitude, a phase shift and/or a signal duration between the transmitting electrode and the receiving electrode using the radar signal received by the receiving electrode, and to determine the dielectricity value using the ascertained signal duration, phase shift and/or the ascertained amplitude, wherein the transmitting electrode and the receiving electrode are aligned parallel to each other, wherein the transmitting electrode and the receiving electrode each comprise at least - a dielectric resonator layer and - a metallic reflective layer which is attached behind the dielectric resonator layer relative to the other electrode (11a, b). - a dielectric resonator layer and - a metallic reflective layer which is attached behind the dielectric resonator layer relative to the other electrode (11a, b).
A propulsion assembly comprising at least: a first tank suitable for containing a first liquid propellant; a second tank suitable for containing a second liquid propellant; a pressurizer device configured to maintain a substantially higher pressure in the second tank than in the first tank; a propulsion chamber suitable for generating thrust by combustion and expansion of a mixture of said propellant; a first feed circuit connecting the first tank to the propulsion chamber in order to feed the latter with the first propellant, and including a regenerative heat exchanger arranged to heat said first propellant with heat coming from the propulsion chamber; a second feed circuit connecting the second tank to the propulsion chamber in order to feed the latter with the second propellant; and a single-shaft turbopump comprising a turbine, a first pump, and a second pump, said pumps (31, 32) being mechanically connected to said turbine for actuation by a single rotary shaft, said first pump having the first feed circuit pass therethrough upstream from said regenerative heat exchanger, said second pump having the second feed circuit pass therethrough, and said turbine having the first feed circuit pass therethrough downstream from said regenerative heat exchanger. a first tank suitable for containing a first liquid propellant; a second tank suitable for containing a second liquid propellant; a pressurizer device configured to maintain a substantially higher pressure in the second tank than in the first tank; a propulsion chamber suitable for generating thrust by combustion and expansion of a mixture of said propellant; a first feed circuit connecting the first tank to the propulsion chamber in order to feed the latter with the first propellant, and including a regenerative heat exchanger arranged to heat said first propellant with heat coming from the propulsion chamber; a second feed circuit connecting the second tank to the propulsion chamber in order to feed the latter with the second propellant; and a single-shaft turbopump comprising a turbine, a first pump, and a second pump, said pumps (31, 32) being mechanically connected to said turbine for actuation by a single rotary shaft, said first pump having the first feed circuit pass therethrough upstream from said regenerative heat exchanger, said second pump having the second feed circuit pass therethrough, and said turbine having the first feed circuit pass therethrough downstream from said regenerative heat exchanger.
An acoustic loudspeaker comprising: - a mobile membrane; - a magnetic field source, - a winding solidly attached to the periphery of said membrane, wound circularly around the outer periphery of the membrane and interacting with the magnetic field to displace the membrane when it conducts an A.C. current, characterized in that - the magnetic field source is formed of a set of magnetized elements distributed consecutively around the outer periphery of the winding, the magnetization of which is oriented radially and passes through the winding perpendicularly substantially along the plane of the membrane, - each magnetized element is curved and has a curved surface opposite to the winding, so that this curved surface is at a constant distance from the winding, - the magnetic field generated by said magnetized elements has field lines emerging from said curved surface with a homogeneous distribution over the entire curved surface and an overall orientation towards the winding. - a mobile membrane; - a magnetic field source, - a winding solidly attached to the periphery of said membrane, wound circularly around the outer periphery of the membrane and interacting with the magnetic field to displace the membrane when it conducts an A.C. current, - the magnetic field source is formed of a set of magnetized elements distributed consecutively around the outer periphery of the winding, the magnetization of which is oriented radially and passes through the winding perpendicularly substantially along the plane of the membrane, - each magnetized element is curved and has a curved surface opposite to the winding, so that this curved surface is at a constant distance from the winding, - the magnetic field generated by said magnetized elements has field lines emerging from said curved surface with a homogeneous distribution over the entire curved surface and an overall orientation towards the winding.