mhurhangee/ep-ind-claims huggingface dataset:
Series compensation device for an electrical energy transmission network - having a transformer, wherein a primary winding of the transformer can be connected in series in a phase line of the energy transmission network, and - having a modular multi-level power converter, which comprises a plurality of modules (1_1... 1_n) which form an electrical module series circuit, - wherein the modular multi-level power converter is connected to a secondary winding of the transformer, characterized in that - the modular multi-level power converter comprises a DC voltage connection and the DC voltage connection is connected to an energy store, as a result of which the modular multi-level power converter is configured to feed not just reactive power but also active power into the energy transmission network, and - the energy store comprises a plurality of energy storage units, which are connected to one another and directly electrically connected in series so as to form energy storage unit series circuits, wherein a plurality of such energy storage unit series circuits are connected in parallel. - having a transformer, wherein a primary winding of the transformer can be connected in series in a phase line of the energy transmission network, and - having a modular multi-level power converter, which comprises a plurality of modules (1_1... 1_n) which form an electrical module series circuit, - wherein the modular multi-level power converter is connected to a secondary winding of the transformer, characterized in that - the modular multi-level power converter comprises a DC voltage connection and the DC voltage connection is connected to an energy store, as a result of which the modular multi-level power converter is configured to feed not just reactive power but also active power into the energy transmission network, and - the energy store comprises a plurality of energy storage units, which are connected to one another and directly electrically connected in series so as to form energy storage unit series circuits, wherein a plurality of such energy storage unit series circuits are connected in parallel.
A transmitter (100, 9150) that is adapted to transmit a signal to a receiver by changing an amount of light emitted, the transmitter (100, 9150) comprising: a control unit (101, 9143) configured to generate a control voltage corresponding to a signal to be transmitted; a reflector (102, 9141c) adapted to reflect a first light that is sunlight; and a liquid crystal board (103, 9140b, 9142) adapted to receive reflected light that is a first light reflected by the reflector (102, 9141c) and to change, according to the control voltage, the amount of light emitted toward the receiver by allowing the reflected light to pass therethrough, characterized in that the reflector (102, 9141c) is translucent, and the liquid crystal board (103, 9140b, 9142) is further adapted to receive a second light from a second light source that is a backlight source and passing through the reflector (102, 9141c), and to change, according to the control voltage, the amount of light emitted toward the receiver by allowing the second light to pass therethrough. a control unit (101, 9143) configured to generate a control voltage corresponding to a signal to be transmitted; a reflector (102, 9141c) adapted to reflect a first light that is sunlight; and a liquid crystal board (103, 9140b, 9142) adapted to receive reflected light that is a first light reflected by the reflector (102, 9141c) and to change, according to the control voltage, the amount of light emitted toward the receiver by allowing the reflected light to pass therethrough, characterized in that the reflector (102, 9141c) is translucent, and the liquid crystal board (103, 9140b, 9142) is further adapted to receive a second light from a second light source that is a backlight source and passing through the reflector (102, 9141c), and to change, according to the control voltage, the amount of light emitted toward the receiver by allowing the second light to pass therethrough.
A roof tile (1a; 1b) comprising a central wall of arcuate or angular shape extending in a longitudinal direction and having two opposite longitudinal rims (23, 24) as well as a front end and a rear end, said tile further including two lateral wings (3, 4) lengthening the longitudinal rims (23, 24) of the central wall, wherein the central wall has a given overall width and each wing has a given overall width, the overall widths of the two wings (3, 4) being identical between the two wings (3, 4), said tile (1a; 1b) being characterized in that said wings (3, 4) have, on their respective free longitudinal flanges, retainer flaps (31, 41) curved upwards so as to allow one of the wings (3, 4) to be retained and blocked by a directly adjacent section tile when the tile (1a, 1b) is used as an edge tile, and in that the ratio between the overall width of the central wall and the overall width of a wing (3; 4) is comprised between 0.75 and 1.3, preferably between 1.0 and 1.2.
An electronic device comprising: a display; a first antenna for wireless communication wherein two branches (151a, 151b) are provided in the first antenna; and a second antenna for near-field communication that forms a loop antenna by being used together with the first antenna, at least a part of the second antenna being positioned at a back surface of a display region of the display, wherein the near-field communication is near-field non-contact communication or near-field non-contact charging, and the second antenna is shared in the near-field non-contact communication and the near-field non-contact charging, wherein two antenna feeds (113a, 113b) for the near-field non-contact communication and two antenna feeds (114a, 114b) for the near-field non-contact charging are connected to the second antenna using duplexers (112a, 112b); a first filter (115, 120) that is provided in the first antenna or the second antenna, passes a signal of a frequency band used in the near-field communication to the first antenna, and blocks inflow of the signal of the frequency band used in the wireless communication into the second antenna; and at least one communication characteristic adjustment unit that is connected to the first antenna and adjusts a characteristic of the wireless communication. a display; a first antenna for wireless communication wherein two branches (151a, 151b) are provided in the first antenna; and a second antenna for near-field communication that forms a loop antenna by being used together with the first antenna, at least a part of the second antenna being positioned at a back surface of a display region of the display, wherein the near-field communication is near-field non-contact communication or near-field non-contact charging, and the second antenna is shared in the near-field non-contact communication and the near-field non-contact charging, wherein two antenna feeds (113a, 113b) for the near-field non-contact communication and two antenna feeds (114a, 114b) for the near-field non-contact charging are connected to the second antenna using duplexers (112a, 112b); a first filter (115, 120) that is provided in the first antenna or the second antenna, passes a signal of a frequency band used in the near-field communication to the first antenna, and blocks inflow of the signal of the frequency band used in the wireless communication into the second antenna; and at least one communication characteristic adjustment unit that is connected to the first antenna and adjusts a characteristic of the wireless communication.
Laser nozzle comprising: - A nozzle body comprising a first axial passage and an inlet for supplying said first axial passage with assist gas, - An outer cap comprising an axial housing and a first outlet located on a front side of said outer cap, the nozzle body being arranged at least partially within said axial housing, - A moving member comprising a second axial passage and a front portion forming a skirt, said moving member being arranged between the outer cap and the nozzle and being movable in translation within the axial housing of the outer cap, and - An elastic member arranged within the axial housing, between the outer cap and the nozzle body, characterised in that the movable element is suitable for and designed to move in translation within the axial housing towards the first outlet under the effect of gaseous pressure from said assist gas engaging in said axial housing and acting on said movable member, said elastic member exerting an elastic return force on the movable member opposing the translation movement of the movable member within the axial housing towards the first outlet. - A nozzle body comprising a first axial passage and an inlet for supplying said first axial passage with assist gas, - An outer cap comprising an axial housing and a first outlet located on a front side of said outer cap, the nozzle body being arranged at least partially within said axial housing, - A moving member comprising a second axial passage and a front portion forming a skirt, said moving member being arranged between the outer cap and the nozzle and being movable in translation within the axial housing of the outer cap, and - An elastic member arranged within the axial housing, between the outer cap and the nozzle body, characterised in that the movable element is suitable for and designed to move in translation within the axial housing towards the first outlet under the effect of gaseous pressure from said assist gas engaging in said axial housing and acting on said movable member, said elastic member exerting an elastic return force on the movable member opposing the translation movement of the movable member within the axial housing towards the first outlet.
A method of wireless communication performed by a user equipment, UE, in communication with a base station, the method comprising: receiving information indicative of a plurality of candidate uplink component carriers in a non-mmW, millimeter wave, spectrum, each of the plurality of candidate uplink component carriers available to be associated with a particular downlink component carrier in a mmW spectrum; in response to receiving the information indicative of the plurality of candidate uplink component carriers, selecting at least a primary uplink component carrier from the plurality of candidate uplink component carriers; and transmitting a signal to the base station using the primary uplink component carrier. receiving information indicative of a plurality of candidate uplink component carriers in a non-mmW, millimeter wave, spectrum, each of the plurality of candidate uplink component carriers available to be associated with a particular downlink component carrier in a mmW spectrum; in response to receiving the information indicative of the plurality of candidate uplink component carriers, selecting at least a primary uplink component carrier from the plurality of candidate uplink component carriers; and transmitting a signal to the base station using the primary uplink component carrier.
Device securing a clamping element (11; 29) against unintentional release, having a disc-like structure which is pierced axially by a bore, wherein the structure is provided with a driver profile on an inner diameter which is defined by the bore and which, when the structure is placed with the bore on a radially inner component, engages in a profile provided on the part of this component and produces a co-rotational coupling of the structure with this component, and wherein the structure is provided axially on both sides with radially extending contact surfaces (18, 19), characterized in that a profile plane of the driver profile is tilted at an angle (φ) with respect to radial planes (20, 21) of the contact surfaces (18, 19).
Device for protecting a load, wherein the device comprises a first current path comprising a first and a second line (101,102), and a monitoring unit, for determining imminent overloading of the electrical load, wherein the monitoring unit comprises a first temperature measuring unit, a substrate, an evaluation unit and a first transducer which establishes an electrically conductive connection between the first and second line (101,102) of the first current path, wherein the first temperature measuring unit is electrically isolated from the first transducer and comprises a first temperature sensor, wherein the first temperature sensor is disposed on the substrate such that it can measure a temperature of the first transducer, wherein the evaluation unit can determine imminent overloading of the load by means of measured temperatures of the first temperature sensor, characterised in that on a first lateral surface of the substrate an additional electrically insulating material is disposed between the first transducer and the substrate.
An adsorbent for chromatographic purification of immunoglobulin molecules, which adsorbent comprises a carrier matrix to which a dye ligand is covalently attached, wherein said dye ligand is selected from anthraquinone dyes and wherein the ligand density of said adsorbent is more than 150 μmoles/g dry adsorbent.
A method for operating a user equipment in a wireless communication system, the method comprising: performing a random access procedure using single antenna transmission, the random access procedure comprising sending an uplink random access channel "RACH" message from a user equipment to a base station using a single antenna transmission mode; detecting a downlink control channel, wherein said downlink control channel includes a first control channel element; determining a first index using the location of said first control channel element; determining a second index based on said first index; determining a first indicator of a first orthogonal resource using said first index; determining a second indicator of a second orthogonal resource based on said second index; spreading an uplink message using said first orthogonal resource to form a first spread signal; spreading said uplink message using said second orthogonal resource to form a second spread signal; transmitting said first spread signal using a first antenna; and transmitting said second spread signal using a second antenna. performing a random access procedure using single antenna transmission, the random access procedure comprising sending an uplink random access channel "RACH" message from a user equipment to a base station using a single antenna transmission mode; detecting a downlink control channel, wherein said downlink control channel includes a first control channel element; determining a first index using the location of said first control channel element; determining a second index based on said first index; determining a first indicator of a first orthogonal resource using said first index; determining a second indicator of a second orthogonal resource based on said second index; spreading an uplink message using said first orthogonal resource to form a first spread signal; spreading said uplink message using said second orthogonal resource to form a second spread signal; transmitting said first spread signal using a first antenna; and transmitting said second spread signal using a second antenna.
A ride vehicle, comprising: a base configured to move through an attraction environment; a sphere engaging the base and comprising one or more ride seats disposed within the sphere, wherein the one or more ride seats are coupled to an upper surface of a platform disposed within the sphere; and a sphere drive system of the base configured to engage with an external surface of the sphere to rotate the sphere relative to the base, wherein the upper surface of the platform is configured to remain substantially horizontal while the sphere drive system rotates the sphere. a base configured to move through an attraction environment; a sphere engaging the base and comprising one or more ride seats disposed within the sphere, wherein the one or more ride seats are coupled to an upper surface of a platform disposed within the sphere; and a sphere drive system of the base configured to engage with an external surface of the sphere to rotate the sphere relative to the base, wherein the upper surface of the platform is configured to remain substantially horizontal while the sphere drive system rotates the sphere.
An adjustable wheel suspension for the wheels (12, 14) of an axle of a motor vehicle, wherein each wheel (12, 14) is guided over wheel guiding members (16, 18) and each wheel (12, 14) is in operative connection via its wheel guiding members (16, 18) with a torsion bar (20, 22) that is adjustable via an actuator device (24, 26), wherein said torsion bars (20, 22) are arranged to be aligned to each other in sections and are orientated in the transverse direction of the vehicle and are each supported on an auxiliary frame via their respective associated actuator device (24, 26), wherein the two actuator devices (24, 26) are connected to each other via a housing strut, characterised in that the housing strut is formed and dimensioned such that the auxiliary frame can be formed without using a transverse strut.
A method of establishing service requirements for a brake fluid in a vehicle's brake system as a function of a variable, comprising the following steps: (a) determining a correlation between said variable and a content of a reactive constituent in the fluid, the reactive constituent being selected from the group consisting of copper, iron and zinc; (b) measuring a current value of said content of reactive constituent in the fluid by reaction with a test reactant exposed to said brake fluid; (c) determining a current approximation of said variable on the basis of said correlation; characterised in that the variable is indicative of the fluid's service age and service mileage and in that the method comprises the further step of: (d) establishing a maintenance schedule for the brake system on the basis of said current approximation of the variable indicative of the fluid's service age and service mileage. (a) determining a correlation between said variable and a content of a reactive constituent in the fluid, the reactive constituent being selected from the group consisting of copper, iron and zinc; (b) measuring a current value of said content of reactive constituent in the fluid by reaction with a test reactant exposed to said brake fluid; (c) determining a current approximation of said variable on the basis of said correlation; (d) establishing a maintenance schedule for the brake system on the basis of said current approximation of the variable indicative of the fluid's service age and service mileage.
Circuit for evaluating measurement signals of at least one sensor with a control circuit and an electronic evaluation unit, wherein a control signal having a first frequency is generated by means of a control section of the control circuit, wherein the control signal is applied to the at least one sensor, wherein the electronic evaluation unit is provided for generating an evaluation signal originating from a measurement signal generated with the sensor, wherein the electronic evaluation unit has means for generating an opposing signal having the first frequency and a modifiable phase angle and means for superposing the opposing signal and the evaluation signal, and wherein the signal resulting from the superposition of the opposing signal and the evaluation signal is fed to a synchronous demodulator of the electronic evaluation unit, wherein the circuit is configured such that the circuit is balanced automatically in a balancing operation by adjusting a phase shift of the opposing signal depending on an output signal of the synchronous demodulator, characterized in that in a balancing operation of the circuit a phase shift of the opposing signal and a clock signal of the synchronous demodulator are set in such a way that the evaluation signal, the opposing signal and the clock of the synchronous demodulator are in-phase.
A rotating rectifier assembly, comprising: an annular bus bar comprising an electrically conductive material; an insulator ring receiving the annular bus bar, the insulator ring defining radially-extending resistor pockets (200,202,204) and diode pockets (206,208,210) therein; resistors (122,124,126) disposed in the resistor pockets (200,202,204) and electrically connected with the annular bus bar; diodes (116,118,120) disposed in the diode pockets (206,208,210') and electrically connected with the annular bus bar; an outer housing receiving the annular bus bar and the insulator ring, such that the insulator ring is positioned radially between the annular bus bar and the outer housing; spring clips (300...310) disposed between and electrically connecting at least some of the resistors (122,124,126), at least some of the diodes (116,118,120), or both with the annular bus bar; characterised by: the spring clips (300...310) each defining a flow diverter; the annular bus bar defines flow channels extending axially on an inner diameter thereof; and the flow diverter of each of the spring clips (300...310) extends at least partially over one of the flow channels. an annular bus bar comprising an electrically conductive material; an insulator ring receiving the annular bus bar, the insulator ring defining radially-extending resistor pockets (200,202,204) and diode pockets (206,208,210) therein; resistors (122,124,126) disposed in the resistor pockets (200,202,204) and electrically connected with the annular bus bar; diodes (116,118,120) disposed in the diode pockets (206,208,210') and electrically connected with the annular bus bar; an outer housing receiving the annular bus bar and the insulator ring, such that the insulator ring is positioned radially between the annular bus bar and the outer housing; spring clips (300...310) disposed between and electrically connecting at least some of the resistors (122,124,126), at least some of the diodes (116,118,120), or both with the annular bus bar; the spring clips (300...310) each defining a flow diverter; the annular bus bar defines flow channels extending axially on an inner diameter thereof; and the flow diverter of each of the spring clips (300...310) extends at least partially over one of the flow channels.
A system for processing raw image data of a microscope, the system comprising one or more processors and one or more storage devices, wherein the system is configured to: obtain the raw image data from an optical imaging sensor of the microscope, the raw image data being based on a filter pattern of the optical imaging sensor, the raw image data being based on a plurality of pixels, the raw image data comprising, for each pixel, an intensity value representing an intensity of light; perform de-noising of the raw image data to obtain de-noised raw image data, wherein the act of performing the de-noising comprises comparing the intensity value of a pixel of the plurality of pixels to a pixel-specific intensity threshold, and adapting the intensity value of the pixel if the intensity is at most the pixel-specific threshold; and perform filter pattern reconstruction using the de-noised raw image data to obtain reconstructed image data. obtain the raw image data from an optical imaging sensor of the microscope, the raw image data being based on a filter pattern of the optical imaging sensor, the raw image data being based on a plurality of pixels, the raw image data comprising, for each pixel, an intensity value representing an intensity of light; perform de-noising of the raw image data to obtain de-noised raw image data, wherein the act of performing the de-noising comprises comparing the intensity value of a pixel of the plurality of pixels to a pixel-specific intensity threshold, and adapting the intensity value of the pixel if the intensity is at most the pixel-specific threshold; and perform filter pattern reconstruction using the de-noised raw image data to obtain reconstructed image data.