mhurhangee/ep-ind-claims huggingface dataset:
A method of outputting a content using a head mounted display, the method comprising: performing a pairing with a digital device having at least one display unit configured to display the content; detecting a location state of the paired digital device, wherein the location state comprises a first state in which a display unit of the digital device is located within a preset view angle region of the head mounted display and a second state in which the display unit of the digital device is not located within the preset view angle region; and outputting the content that is currently displayed in the digital device to the head mounted display based on the detected location state; the method characterized in that: if the detected location state is switched from the second state to the first state, determining whether the content currently displayed in the digital device is identical to the content currently outputted to the head mounted display, wherein if the content currently displayed in the digital device is identical to the content currently outputted to the head mounted display, the outputting step comprises terminating the output to the head mounted display. performing a pairing with a digital device having at least one display unit configured to display the content; detecting a location state of the paired digital device, wherein the location state comprises a first state in which a display unit of the digital device is located within a preset view angle region of the head mounted display and a second state in which the display unit of the digital device is not located within the preset view angle region; and outputting the content that is currently displayed in the digital device to the head mounted display based on the detected location state; the method characterized in that: if the detected location state is switched from the second state to the first state, determining whether the content currently displayed in the digital device is identical to the content currently outputted to the head mounted display, wherein if the content currently displayed in the digital device is identical to the content currently outputted to the head mounted display, the outputting step comprises terminating the output to the head mounted display. if the detected location state is switched from the second state to the first state, determining whether the content currently displayed in the digital device is identical to the content currently outputted to the head mounted display, wherein if the content currently displayed in the digital device is identical to the content currently outputted to the head mounted display, the outputting step comprises terminating the output to the head mounted display.
A computer-implemented method of processing a signal representing a physiological rhythm of a subject, the method comprising the steps of: a) receiving the signal from the subject, b) filtering the signal with a band pass filter, characterised in that the method further comprises the steps of: c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising two analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length from the sum of the outputs of the plurality of interval length estimation methods, and wherein the overlap of a first analysis window and a second analysis window is greater than 50% of the size of the first and/or second analysis windows. a) receiving the signal from the subject, b) filtering the signal with a band pass filter, characterised in that the method further comprises the steps of: c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising two analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length from the sum of the outputs of the plurality of interval length estimation methods, and c) extracting multiple analysis windows from the filtered signal, the multiple analysis windows comprising two analysis windows overlapping each other; d) performing a plurality of interval length estimation methods on the filtered signal in each of the multiple analysis windows, e) summing the outputs of the plurality of interval length estimation methods, f) determining an interval length from the sum of the outputs of the plurality of interval length estimation methods, and wherein the overlap of a first analysis window and a second analysis window is greater than 50% of the size of the first and/or second analysis windows.
Submersible pump comprising a pump chamber that is stationary with respect to a pump housing and is vertically spaced apart from a base plane of the submersible pump, which chamber has an inlet opening that faces downward in the operating position, and a pump impeller that rotates in a motorized manner in the pump chamber, as well as through-openings which are located upstream of the inlet opening and the opening width of which determines the maximum particle size of conveyable solids, comprising adjustment means (DR, RR) which can be displaced relative to the pump housing between a first position and at least one second position, there being a first opening width of the through-openings in the first position for a dirty-water operation of the submersible pump, and a smaller, second opening width of the through-openings in the second position for a clear-water operation of the submersible pump, characterized in that the adjustment means (DR, RR) can be displaced relative to the pump housing into at least one further position which differs from the first and the second operating position, and can be secured in this further position, and the minimum suction height and maximum particle size are different in the further position from in the first and the second position, and the adjustment means (DR, RR) are connected to the pump housing and can be rotated relative to the pump housing about an axis of rotation that is vertical during operation via a threaded connection (AG, IG), a rotation of the adjustment means (DR, RR) via the threaded connection (IG, AG) being associated with a height adjustment of the pump housing relative to a base plane, the adjustment means forming a ring (DR, RR) around a lower region of the pump housing and the ring (DR, RR) being provided, on its lower edge, with a base plate which forms the base plane and is designed as an independent component, the base plate being held on the ring (DR, RR) so as to be able to rotate relative to the ring (DR, RR) about its axis of rotation.
A composite powder for use in selective laser sintering, comprising: a sulfonated polyester matrix; and a plurality of silver nanoparticles dispersed within the matrix, wherein the silver nanoparticle is present in the composite powder in a range from 0.5 ppm to 50,000 ppm; and further wherein the composite powder has a particle size of from 10 microns to 300 microns, as measured with a Coulter Counter. a sulfonated polyester matrix; and a plurality of silver nanoparticles dispersed within the matrix,
A system for adaptively forming three-dimensional components from a plurality of deposited layers of metallic powder, said system comprising; a build chamber comprising: a housing; a build platform disposed in said build chamber; and an actuator for moving said build platform in said build chamber; a plurality of electron beam sources for directing a plurality of electron beams into said build chamber and onto the plurality of deposited layers of metallic powder disposed on said build platform; and a controller for simultaneously controlling said actuator and said plurality of electron beam sources to direct the plurality of electron beams onto the plurality of deposited layers of metallic powder on said build platform to sequentially consolidate patterned portions of the plurality of deposited layers of metallic powder to adaptively form the three-dimensional components; wherein said controller is operable to: divide the plurality of layers of metallic powder into a plurality of regions (144A-144N); direct each of the plurality of electron beams onto a different region (144A-144N) of the plurality of deposited layers of metallic powder; focus each of the plurality of electron beams onto a portion of each of the different regions (144A-144N); and randomly move the focused electron beams within the different regions (144A-144N). a build chamber comprising: a housing; a build platform disposed in said build chamber; and an actuator for moving said build platform in said build chamber; a housing; a build platform disposed in said build chamber; and an actuator for moving said build platform in said build chamber; a plurality of electron beam sources for directing a plurality of electron beams into said build chamber and onto the plurality of deposited layers of metallic powder disposed on said build platform; and a controller for simultaneously controlling said actuator and said plurality of electron beam sources to direct the plurality of electron beams onto the plurality of deposited layers of metallic powder on said build platform to sequentially consolidate patterned portions of the plurality of deposited layers of metallic powder to adaptively form the three-dimensional components; wherein said controller is operable to: divide the plurality of layers of metallic powder into a plurality of regions (144A-144N); direct each of the plurality of electron beams onto a different region (144A-144N) of the plurality of deposited layers of metallic powder; focus each of the plurality of electron beams onto a portion of each of the different regions (144A-144N); and randomly move the focused electron beams within the different regions (144A-144N). divide the plurality of layers of metallic powder into a plurality of regions (144A-144N); direct each of the plurality of electron beams onto a different region (144A-144N) of the plurality of deposited layers of metallic powder; focus each of the plurality of electron beams onto a portion of each of the different regions (144A-144N); and randomly move the focused electron beams within the different regions (144A-144N).
A nozzle arrangement for injecting a liquid into a tank such as an oil/mud-tank, said nozzle arrangement comprising - a down pipe - a pipe section - rotatably arranged at a lower end of the down pipe with a rotational axis coinciding with a longitudinal axis of the down pipe, and - said pipe section comprising an angled cleaner head distal to the position at which the pipe section is rotatably arranged at the down pipe, - an angled nozzle pipe section; - a nozzle hub provided for rotatably connecting the angled nozzle pipe section to said pipe section at the angled cleaner head; the nozzle arrangement further comprising a rotating mechanism comprising - a primary drive shaft being connected to said pipe section - a row of gear teeth fixedly arranged on or formed in the lower end of the down pipe; - an angular gear; characterized in that the nozzle arrangement further comprises: - a worm gear arranged to rotate the angled nozzle pipe section at the angled cleaner head driven by the angular gear; - a secondary drive shaft rotatably mounted on an outside of said pipe section and having at one end a gear wheel of the angular gear and at the other end a gear wheel cooperating with said row of gear teeth, - said row of gear teeth being arranged on an outside of the down pipe. - a down pipe - a pipe section - rotatably arranged at a lower end of the down pipe with a rotational axis coinciding with a longitudinal axis of the down pipe, and - said pipe section comprising an angled cleaner head distal to the position at which the pipe section is rotatably arranged at the down pipe, - rotatably arranged at a lower end of the down pipe with a rotational axis coinciding with a longitudinal axis of the down pipe, and - said pipe section comprising an angled cleaner head distal to the position at which the pipe section is rotatably arranged at the down pipe, - an angled nozzle pipe section; - a nozzle hub provided for rotatably connecting the angled nozzle pipe section to said pipe section at the angled cleaner head; the nozzle arrangement further comprising a rotating mechanism comprising - a primary drive shaft being connected to said pipe section - a row of gear teeth fixedly arranged on or formed in the lower end of the down pipe; - an angular gear; - a worm gear arranged to rotate the angled nozzle pipe section at the angled cleaner head driven by the angular gear; - a secondary drive shaft rotatably mounted on an outside of said pipe section and having at one end a gear wheel of the angular gear and at the other end a gear wheel cooperating with said row of gear teeth, - said row of gear teeth being arranged on an outside of the down pipe.
An apparatus for obtaining a depth image, the apparatus comprising: a light source configured to emit first light to a first region of an object for a first time period and to emit second light to a second region of the object for a second time period, the first light and the second light being reflected from the first region and the second region, respectively, wherein at least parts of the first region and the second region do not overlap each other; and an image obtainer configured to obtain a first partial depth image based on the reflected first light, to obtain a second partial depth image based on the reflected second light, and to obtain a first depth image of the object based on the first partial depth image and the second partial depth image, and characterized in that the light source is further configured to emit third light to the first region of the object for a third time period, the third light being reflected from the first region, and in that the image obtainer is further configured to obtain a third partial depth image of the first region based on the reflected third light, and obtain a second depth image of the object based on the second partial depth image and the third partial depth image. a light source configured to emit first light to a first region of an object for a first time period and to emit second light to a second region of the object for a second time period, the first light and the second light being reflected from the first region and the second region, respectively, wherein at least parts of the first region and the second region do not overlap each other; and an image obtainer configured to obtain a first partial depth image based on the reflected first light, to obtain a second partial depth image based on the reflected second light, and to obtain a first depth image of the object based on the first partial depth image and the second partial depth image, and characterized in that the light source is further configured to emit third light to the first region of the object for a third time period, the third light being reflected from the first region, and in that the image obtainer is further configured to obtain a third partial depth image of the first region based on the reflected third light, and obtain a second depth image of the object based on the second partial depth image and the third partial depth image.
A gear unit with at least one eccentric shaft, at least one externally toothed disc (7, 8) and at least one epicyclic wheel, in particular planet wheel, of a sun gear shaft, and a ring gear, wherein the eccentric shaft has an eccentric core region (31, 32) on which the externally toothed disc (7, 8) is arranged rotatably mounted by means of a bearing (5, 15) with rolling elements, wherein the external toothing of the externally toothed disc (7, 8) is engaged with the internal toothing of the ring gear, which gear is connected non-rotatably to a housing part of the gear unit, wherein the eccentric shaft is rotatably mounted in an output shaft, i.e. pinion cage shaft, wherein the output shaft is rotatably mounted in relation to the ring gear, wherein the respective epicyclic wheel is connected in each case non-rotatably to a or the eccentric shaft, in particular by means of a polygonal portion or by means of a spline, wherein each epicyclic wheel is engaged with the sun gear shaft, wherein the external toothing of the externally toothed disc (7, 8) is involute toothing and the internal toothing of the ring gear likewise is involute toothing, characterised in that a thrust washer for axially limiting and axially securing the rolling elements of the bearings (5, 15) is embodied as a circular disc which has an axially protruding, radially outer, projection, the circular disc having a cutout which is arranged eccentrically, therefore the centre point of the preferably circular cutout is spaced apart from the centre line and/or from the centre point of the circular disc, the projection being formed in annular manner and the ring axis being spaced apart from the centre point of the preferably circular cutout, the axial region covered by the projection being encompassed by the axial region covered by the eccentric core region (31, 32), the axial region covered by the thrust washer overlapping true with the axial region covered by the eccentric core region (31, 32), the projection being connected in non-positive manner to the eccentric core region (31, 32), in particular being elastically pressed onto this region in the radial direction.
A method of joining a computing device in a local network to a community Wi-Fi network separate from the local network, the method comprising: receiving, at the computing device, an opt-in signal indicating that the computing device desirably be added to the community Wi-Fi network, wherein the community Wi-Fi network comprises disparate computing devices (108, 110), and wherein the disparate computing devices (108, 110) share respective network bandwidth capacities with one or more member consumer devices of the community Wi-Fi network; responsive to receiving the opt-in signal, retrieving parameters of an account of the local network, wherein the parameters comprise at least data indicating a network bandwidth capacity allocated to the account, and wherein the network bandwidth capacity allocated to the account is usable by the computing device; determining a shared portion of the network bandwidth capacity allocated to the account based at least in part upon the parameters of the account; and configuring the computing device to share the shared portion of the network bandwidth capacity for consumption by the one or more member consumer devices, wherein the computing device and the one or more member consumer devices communicate over a Wi-Fi connection. receiving, at the computing device, an opt-in signal indicating that the computing device desirably be added to the community Wi-Fi network, wherein the community Wi-Fi network comprises disparate computing devices (108, 110), and wherein the disparate computing devices (108, 110) share respective network bandwidth capacities with one or more member consumer devices of the community Wi-Fi network; responsive to receiving the opt-in signal, retrieving parameters of an account of the local network, wherein the parameters comprise at least data indicating a network bandwidth capacity allocated to the account, and wherein the network bandwidth capacity allocated to the account is usable by the computing device; determining a shared portion of the network bandwidth capacity allocated to the account based at least in part upon the parameters of the account; and configuring the computing device to share the shared portion of the network bandwidth capacity for consumption by the one or more member consumer devices, wherein the computing device and the one or more member consumer devices communicate over a Wi-Fi connection.
A method for processing uplink fronthaul data in a wireless communications network, performed by an intelligent switching unit of a wireless communication system, comprising: - receiving a plurality of weighted frequency domain data sets from a plurality of remote units, wherein each of the weighted frequency domain data sets is from a respective remote unit, and wherein each of the weighted frequency domain data sets has a plurality of weighted samples (step 201); - temporally aligning each of the weighted frequency domain data sets to generate a plurality of aligned weighted frequency domain data sets (step 203); - computing a sum of the plurality of aligned weighted frequency samples to generate a plurality of summed weighted frequency domain data sets (step 205); and - transmitting the plurality of summed weighted frequency samples (step 206) to a baseband processing unit of the wireless communication system; characterized in that it comprises, following said step of computing a sum and before said step of transmitting: - comparing an amplitude of each weighted sample with a sum threshold value; and - removing from the plurality of weighted frequency domain data sets those samples that have an amplitude that is below the sum threshold value. - receiving a plurality of weighted frequency domain data sets from a plurality of remote units, wherein each of the weighted frequency domain data sets is from a respective remote unit, and wherein each of the weighted frequency domain data sets has a plurality of weighted samples (step 201); - temporally aligning each of the weighted frequency domain data sets to generate a plurality of aligned weighted frequency domain data sets (step 203); - computing a sum of the plurality of aligned weighted frequency samples to generate a plurality of summed weighted frequency domain data sets (step 205); and - transmitting the plurality of summed weighted frequency samples (step 206) to a baseband processing unit of the wireless communication system; - comparing an amplitude of each weighted sample with a sum threshold value; and - removing from the plurality of weighted frequency domain data sets those samples that have an amplitude that is below the sum threshold value.
An electronic receiving device for receiving data via an asynchronous communication network including at least one elementary network, the electronic device being configured to be connected to said elementary network and comprising: - a receiving module configured to receive several successive data frames via the asynchronous communication network, each frame being sent over said elementary network according to a predefined sending table and with a minimum time gap between sending time instants of two successive frames, characterized in that it comprises a verification module configured, for at least two received data frames, to estimate a network jitter from the minimum time gap and reception time instants of at least two frames received on said elementary network, then to compare the estimated jitter to an authorized range of network jitter values, the verification module being configured to estimate the network jitter from the duration (ΔT R) separating two reception time instants and from a predefined inter-frame time period (ΔT T), the predefined inter-frame time period (ΔT T) being a function of the minimum time gap. - a receiving module configured to receive several successive data frames via the asynchronous communication network, each frame being sent over said elementary network according to a predefined sending table and with a minimum time gap between sending time instants of two successive frames,