mhurhangee/ep-ind-claims huggingface dataset:
A communication device comprising a transmitter and being for transmitting a plurality of signals (S 1,..., S N) to a satellite from the transmitter, said transmitter including at least one transmitting antenna and a modem, each of the signals (S 1,..., Sn) transmitted by the device being for being addressed to a given transmitting spot (C 1,..., C N) via the satellite, a transmitting spot (C 1,..., Cn) having a predefined geographical coverage of an antenna of the satellite, said device including a calculator and a memory including a set of reference values (ENSr) of powers P R (POS k) and phases Φ R (POS k) of at least a first reference signal S R received at different points POS k of at least one transmitting spot, a first wanted signal (S 11) being transmitted in a first spot (C 1) and being likely to generate an interfering signal (S 1v) in a neighbouring spot (C v), the transmitter being adapted for generating at least one wanted neighbouring signal (S vv) for being transmitted in a neighbouring spot (C v) of the first spot (C 1) and being likely to be disturbed by the interfering signal (S 1v), the transmitter being adapted for generating a first correcting signal (S vvc1) from the first transmitted signal (S 1) and at least a first phase value Φ R (POS 1) and a first power value P R (POS 1) of the set of reference values (ENSr), said phase and power values being chosen depending on at least one determined geographical position (POS 1) in the neighbouring spot (Cv), said transmitter being adapted for transmitting a combination of the first correcting signal (S vvc1) and the wanted neighbouring signal (S vv) in order to generate a corrected neighbouring signal (S vv ') to the satellite, said corrected neighbouring signal (S vv ') being for being transmitted in the neighbouring spot (C v).
Method for producing fluorinated cyclic aliphatic compounds comprising the step of hydrogenating an aromatic fluorine-containing precursor substance with a catalyst comprising at least one rhodium atom and at least one N-heterocyclic carbene ligand, in the presence of a reductant.
A control method for a refrigerator comprising a linear compressor, the method comprising: monitoring an external ambient temperature T of a refrigerator; comparing the external ambient temperature T with a preset external ambient temperature threshold T0; if T is greater than T0, controlling an output power of the linear compressor to be a preset first output power, and if T is smaller than or equal to T0, controlling the output power of the linear compressor to be a preset second output power, which is greater than the preset first output power. monitoring an external ambient temperature T of a refrigerator; comparing the external ambient temperature T with a preset external ambient temperature threshold T0; if T is greater than T0, controlling an output power of the linear compressor to be a preset first output power, and if T is smaller than or equal to T0, controlling the output power of the linear compressor to be a preset second output power, which is greater than the preset first output power.
Transport device for the transporting of transport goods items in a transport direction, comprising at least one machine frame, arranged on which is at least one transport element, forming a loop and driven such as to circulate, wherein, related to the direction of travel, the transport element is guided over a front deflection device, as well as over a rear deflection device, related to the direction of travel, wherein, between the front and rear deflection devices (141, 142), a transport segment for the transport goods items is formed by means of the at least one transport element, wherein the at least one transport element is guided along the transport segment sliding on at least one slide strip, wherein the at least one slide strip is arranged at least in sections along the transport segment on at least one profile element, which is connected to at least one carrier body of the machine frame, wherein the at least one transport element is guided, at least in the transition region from the front deflection device, onto the at least one slide strip, at least in sections by at least one inlet finger, which is detachably connected to the slide strip and/or to the profile element, wherein the detachable connection of the at least one inlet finger to the at least one slide strip is configured as a latch connection, and/or the detachable connection of the at least one inlet finger to the at least one profile element is configured as a plug connection, and/or the at least one inlet finger and the at least one profile element are detachably connected by means of a quick-action securing device to the at least one carrier body, wherein the inlet finger comprises a receiving section, connected adjacent to a contact section, which forms the plug connection for the detachable plug reception of a profile element, characterised in that the inlet finger comprises a plug section, in turn connecting adjacent to the receiving section, by means of which the inlet finger can be detachably connected to the quick-action securing device, wherein the detachable connection of the quick-action securing device to the inlet finger is configured as a non-positive and/or positive fit connection.
A method for producing a three-dimensional object in a stereolithographic process by developing a plurality of layers (3;30) in chronological sequence, the entirety of which forms the three-dimensional object, wherein the layers are developed by means of exposure to a radiation triggering a curing of the layer, wherein at least one of the layers (3; 30) is divided into at least two subregions (3a,3b; 21,22; 31,32; 41,42; 51,52; 61,62), which are located on both sides of a dividing line and are substantially adjacent to one another and are each developed in chronologically separate development steps, wherein an overlap area (23, 34,35,36) is provided, which runs along the dividing line with a width B, and which includes peripheral areas of the two subregions involved in the overlap area, wherein the peripheral regions of adjoining subregions along the dividing line protrude into one another in a form-fitting manner and engage in one another, which does not permit a form-preserving disengagement of the peripheral regions, wherein, in the overlap area, the layer is developed in each case in part in those development steps associated with the subregions involved in the overlap area, wherein the width B and the location of the overlap area remain the same or vary from layer to layer so that a strip in the layer is formed from pixel rows, characterised in that peripheral areas in the overlap area (35;36) of the subregions (31,32), which are adjacent to one another in a layer, are contiguous and engage with one another in a hook-like and/or dovetailed manner.
An apparatus comprising: - an input point for receiving a frequency shift keyed modulated signal; - an output point (TO DEMO); - a differential amplifier coupled between said input point and said output point (TO DEMO) for amplifying said FSK modulated signal, said differential amplifier including a pair of first and second transistors (T41, T42), said first transistor being configured as an emitter follower and said second transistor being configured as a common-base amplifier, said first transistor having a first collector, a first base, and a first emitter, said second transistor having a second collector, a second base, and a second emitter, said first base coupled to said receiving means; - a band pass filter coupled between said second collector and said output point (TO DEMO) for band-pass filtering an output signal of said amplifying means, said band-pass filter being tuned to substantially a center frequency of said FSK modulated signal; - a negative feedback path coupled between said first collector and said first base; - a first voltage divider coupled between first and second sources of reference potential for regulating a voltage provided by said first source of reference potential and said FSK signal at said first base, said first voltage divider coupled to said first base; - a capacitor coupled between said input point and said first base; and - a bias circuit including a second voltage divider coupled between third and fourth sources of reference potential for biasing said second base. - an input point for receiving a frequency shift keyed modulated signal; - an output point (TO DEMO); - a differential amplifier coupled between said input point and said output point (TO DEMO) for amplifying said FSK modulated signal, said differential amplifier including a pair of first and second transistors (T41, T42), said first transistor being configured as an emitter follower and said second transistor being configured as a common-base amplifier, said first transistor having a first collector, a first base, and a first emitter, said second transistor having a second collector, a second base, and a second emitter, said first base coupled to said receiving means; - a band pass filter coupled between said second collector and said output point (TO DEMO) for band-pass filtering an output signal of said amplifying means, said band-pass filter being tuned to substantially a center frequency of said FSK modulated signal; - a negative feedback path coupled between said first collector and said first base; - a first voltage divider coupled between first and second sources of reference potential for regulating a voltage provided by said first source of reference potential and said FSK signal at said first base, said first voltage divider coupled to said first base; - a capacitor coupled between said input point and said first base; and - a bias circuit including a second voltage divider coupled between third and fourth sources of reference potential for biasing said second base.
Process for dealkylation of hydrocarbon mixture rich in C7- to C9-aromatics, wherein - the aromatics-rich starting hydrocarbon mixture is initially subjected to an extractive distillation in which the aromatics-containing hydrocarbon mixture is distilled with a suitable extracting solvent and freed therefrom to obtain a solvent-free product stream markedly depleted in aromatic hydrocarbons and a solvent-free aromatics concentrate markedly enriched in aromatic hydrocarbons, characterized in that - after the extractive distillation the solvent-free aromatics concentrate is passed into a reactor for hydrogenating dealkylation in which it is reacted with hydrogen to form a dealkylation aromatics stream as the main product and a paraffinic hydrocarbons stream and a methane stream as by-products and - the aromatic hydrocarbon stream is passed into a treatment unit and - the extractive distillation and the recovery of the extracting solvent are carried out in a single column. - the aromatics-rich starting hydrocarbon mixture is initially subjected to an extractive distillation in which the aromatics-containing hydrocarbon mixture is distilled with a suitable extracting solvent and freed therefrom to obtain a solvent-free product stream markedly depleted in aromatic hydrocarbons and a solvent-free aromatics concentrate markedly enriched in aromatic hydrocarbons, - after the extractive distillation the solvent-free aromatics concentrate is passed into a reactor for hydrogenating dealkylation in which it is reacted with hydrogen to form a dealkylation aromatics stream as the main product and a paraffinic hydrocarbons stream and a methane stream as by-products and - the aromatic hydrocarbon stream is passed into a treatment unit and - the extractive distillation and the recovery of the extracting solvent are carried out in a single column.
An antigenic formulation comprising a combination of two or more monovalent Norovirus virus-like particles (VLPs) or an antigenic formulation comprising multivalent Norovirus VLPs for use in a method of generating an immune response such that the combined VLP composition is able to elicit immunity against infection by each Norovirus genotype represented in the formulation, wherein the immune response against a given VLP in the combination is at least 50% of the immune response of that same VLP when measured individually.
Automatic heel unit for a ski binding, comprising a jaw for retaining a ski boot in a heel region of the ski boot, a jaw carrier, on which the jaw is mounted in a movable manner, and an elastic element, wherein a) the automatic heel unit has a retaining configuration, in which the jaw is located in a retaining setting and can interact with the heel region of the ski boot, which is retained in the ski binding, such that the ski boot is arrested in a lowered setting, and wherein b) the automatic heel unit has a release configuration, in which the jaw is located in a release setting and the heel region of the ski boot has been freed from the jaw, wherein the jaw can be moved relative to the jaw carrier from its retaining setting into its release setting, and back, on an adjustment path, wherein the adjustment path has a first region, in which the jaw is biased in the direction of its retaining setting by the elastic element exerting a force, and the automatic heel unit comprises a guide device, by means of which the jaw is mounted such that it can be displaced relative to the jaw carrier from its retaining setting into its release setting, and back, along the adjustment path, characterized in that, at each position of the jaw in the first region of the adjustment path, the force generated by the elastic element in order to bias the jaw in the direction of its retaining setting is oriented at an acute angle ranging from 20° to 70° to an orientation of the adjustment path at the respective position of the jaw, wherein the jaw is located in its retaining setting in the first region of the adjustment path and the first region of the adjustment path is a continuous region. a) the automatic heel unit has a retaining configuration, in which the jaw is located in a retaining setting and can interact with the heel region of the ski boot, which is retained in the ski binding, such that the ski boot is arrested in a lowered setting, and wherein b) the automatic heel unit has a release configuration, in which the jaw is located in a release setting and the heel region of the ski boot has been freed from the jaw,
An external control device for use with a neurostimulator coupled to a plurality of electrodes capable of conveying electrical stimulation energy into tissue in which the electrodes are implanted, comprising: output circuitry configured for transmitting electrode combinations to the neurostimulator; a user interface including a display device, at least a first control element configured to be actuated to selectively place the external control device between a first mode and a second mode, and at least a second control element (116, 118) configured to be actuated to define first one or more candidate electrode combinations when the external control device is in the first mode and to define second one or more candidate electrode combinations when the external control device is in the second mode; and a processor, when the external control device is in the first mode, configured for simulating a volume of tissue activation based on each of the first one or more candidate electrode combinations, while preventing the output circuitry from transmitting the first one or more candidate electrode combinations to the neurostimulator, and when the external control device is in the second mode, configured for allowing the output circuitry to transmit the second one or more candidate electrode combinations to the neurostimulator. output circuitry configured for transmitting electrode combinations to the neurostimulator; a user interface including a display device, at least a first control element configured to be actuated to selectively place the external control device between a first mode and a second mode, and at least a second control element (116, 118) configured to be actuated to define first one or more candidate electrode combinations when the external control device is in the first mode and to define second one or more candidate electrode combinations when the external control device is in the second mode; and a processor, when the external control device is in the first mode, configured for simulating a volume of tissue activation based on each of the first one or more candidate electrode combinations, while preventing the output circuitry from transmitting the first one or more candidate electrode combinations to the neurostimulator, and when the external control device is in the second mode, configured for allowing the output circuitry to transmit the second one or more candidate electrode combinations to the neurostimulator.
A radar apparatus, configured to mount on a movable body, the radar apparatus comprising: an acquisition module configured to acquire an echo based on a reflected wave from a target object, of a transmitted electromagnetic wave; an echo data creation module configured to create, based on the echo, echo data (41, 42) at least indicative of a position of the target object; a determination data creation module configured to obtain the size of the echo and to create a determination data whether trail data indicative of a relative positional change of the echo with respect to the apparatus of the target object is to be newly created based on the echo, wherein, if the size of the echo exceeds a first predetermined threshold and if the moving speed of the echo is below a second predetermined threshold, the created determination data is data for preventing the trail data to be newly created; a memory configured to store the determination data set, for every given display area; a trail data creation module configured to create the trail data based on the echo data (41, 42) and the determination data; and a display unit configured to display the echo data (41, 42) and the trail data. an acquisition module configured to acquire an echo based on a reflected wave from a target object, of a transmitted electromagnetic wave; an echo data creation module configured to create, based on the echo, echo data (41, 42) at least indicative of a position of the target object; a determination data creation module configured to obtain the size of the echo and to create a determination data whether trail data indicative of a relative positional change of the echo with respect to the apparatus of the target object is to be newly created based on the echo, wherein, if the size of the echo exceeds a first predetermined threshold and if the moving speed of the echo is below a second predetermined threshold, the created determination data is data for preventing the trail data to be newly created; a memory configured to store the determination data set, for every given display area; a trail data creation module configured to create the trail data based on the echo data (41, 42) and the determination data; and a display unit configured to display the echo data (41, 42) and the trail data.
Injection device having a housing, in which a receiving area for a container with injection liquid is formed, having an operating element which can be rotated to set an amount of injection liquid to be expressed from the container and which moves upon rotation in the direction of a longitudinal middle axis of the injection device in the distal direction of the injection device relative to the housing, wherein the operating element is displaced to express injection liquid from the container in the direction of the longitudinal middle axis in the proximal direction of the injection device, wherein the injection device has a blocking part which is connected rotationally securely to the operating element upon adjustment of the amount of injection liquid to be expressed and is displaced in the direction of the longitudinal middle axis in the distal direction and which, upon expression of injection liquid from the container, is rotationally securely connected to the housing and displaced in the direction of the longitudinal middle axis in the proximal direction, characterised in that the injection device has a blocking contour extending spirally around the longitudinal middle axis, which blocking contour cooperates with the blocking part and which blocks a movement of the blocking part in the proximal direction, wherein the blocking contour has on at least one point an interruption which enables a movement of the blocking part in the direction of the longitudinal middle axis in the proximal direction.
A virtual or augmented reality display system (80, 1000) comprising: a display having a plurality of waveguides (182, 184, 186, 188, 190) configured to display imagery for a plurality of depth planes, each of the plurality of waveguides (182, 184, 186, 188, 190) being associated with a particular one of the plurality of depth planes and being configured to display the imagery corresponding to that particular depth plane; a graphics processor configured to produce rendered virtual or augmented reality imagery data, wherein the virtual or augmented reality display system (80, 1000) is configured to generate and embed shift information in the rendered imagery data; and a display controller configured to receive the rendered imagery data from the graphics processor, read the shift information embedded in the rendered imagery data; perform a shift of the rendered imagery data that is specified by the shift information, wherein the shift is a pixel shift within a first depth plane, or a shift from the first depth plane to a second depth plane, remove the embedded shift information from the rendered imagery data, and provide the shifted, rendered imagery data to the display. a display having a plurality of waveguides (182, 184, 186, 188, 190) configured to display imagery for a plurality of depth planes, each of the plurality of waveguides (182, 184, 186, 188, 190) being associated with a particular one of the plurality of depth planes and being configured to display the imagery corresponding to that particular depth plane; a graphics processor configured to produce rendered virtual or augmented reality imagery data, wherein the virtual or augmented reality display system (80, 1000) is configured to generate and embed shift information in the rendered imagery data; and a display controller configured to receive the rendered imagery data from the graphics processor, read the shift information embedded in the rendered imagery data; perform a shift of the rendered imagery data that is specified by the shift information, wherein the shift is a pixel shift within a first depth plane, or a shift from the first depth plane to a second depth plane, remove the embedded shift information from the rendered imagery data, and provide the shifted, rendered imagery data to the display. receive the rendered imagery data from the graphics processor, read the shift information embedded in the rendered imagery data; perform a shift of the rendered imagery data that is specified by the shift information, wherein the shift is a pixel shift within a first depth plane, or a shift from the first depth plane to a second depth plane, remove the embedded shift information from the rendered imagery data, and provide the shifted, rendered imagery data to the display.