mhurhangee/ep-ind-claims huggingface dataset:
A method for synchronizing playback of a program including a video and associated first audio at a first electronic device with playback of a second audio associated with the program at a second electronic device that also receives the first audio, the first audio carrying a first language and the second audio carrying a second language different from the first language, the method comprising: decoding, by the second electronic device, the first audio, and outputting the decoded first audio; decoding, by the second electronic device, the second audio and outputting the decoded second audio for playing back by the second electronic device; receiving a user command to synchronize the playback of the video at the first electronic device and playback of the second audio at the second electronic device; responsive to the user command, the method further comprising: capturing, by a capturing device in the second electronic device, the playback of the first audio at the first electronic device; determining, by the second electronic device, an offset between the outputted decoded first audio and the captured first audio; and adjusting outputting of the decoded second audio according to the offset, so that the playback of the first audio at the first electronic device is synchronized with the playback of the second audio at the second electronic device. decoding, by the second electronic device, the first audio, and outputting the decoded first audio; decoding, by the second electronic device, the second audio and outputting the decoded second audio for playing back by the second electronic device; receiving a user command to synchronize the playback of the video at the first electronic device and playback of the second audio at the second electronic device; responsive to the user command, the method further comprising: capturing, by a capturing device in the second electronic device, the playback of the first audio at the first electronic device; determining, by the second electronic device, an offset between the outputted decoded first audio and the captured first audio; and adjusting outputting of the decoded second audio according to the offset, so that the playback of the first audio at the first electronic device is synchronized with the playback of the second audio at the second electronic device. capturing, by a capturing device in the second electronic device, the playback of the first audio at the first electronic device; determining, by the second electronic device, an offset between the outputted decoded first audio and the captured first audio; and adjusting outputting of the decoded second audio according to the offset, so that the playback of the first audio at the first electronic device is synchronized with the playback of the second audio at the second electronic device.
Process for preparing an ester mixture in which an n-butene-containing feed mixture having a composition which varies over time is subjected to a first oligomerization to obtain an oligomerizate and at least some of the butene oligomers present in the oligomerizate are hydroformylated to aldehydes, of which at least some are hydrogenated by subsequent hydrogenation to an alcohol mixture which is then converted to the ester mixture, and in which an approximation of the actual viscosity of the ester mixture is determined, characterized in that as a function of the approximation of the actual viscosity of the ester mixture determined, ethene oligomers which are obtained by subjecting an n-butene-free, ethene-containing feed mixture to a second oligomerization conducted separately from the first oligomerization are added in a controlled manner to the butene oligomers to be hydroformylated.
A closure having a. a top deck and b. a therewith adjacent outer skirt, c. said outer skirt comprising on the inside a segmented thread with thread segments (6.1) whereby d. between two in circumferential direction adjacent thread segments (6.1) a first channel-like recess is arranged on the inside of the outer skirt extending in an axial direction of the skirt and whereby e. on the outside of the skirt second channel-like recesses are arranged which extend in the axial direction of the skirt, whereby said second recesses are arranged radial outside to and aligned with at least two thread segments adjacent to each other in an axial direction of the closure, characterized in that f. the number of the first recesses on the inside and the rows of second recesses on the outside are equivalent with respect to each other. a. a top deck and b. a therewith adjacent outer skirt, c. said outer skirt comprising on the inside a segmented thread with thread segments (6.1) whereby d. between two in circumferential direction adjacent thread segments (6.1) a first channel-like recess is arranged on the inside of the outer skirt extending in an axial direction of the skirt and whereby e. on the outside of the skirt second channel-like recesses are arranged which extend in the axial direction of the skirt, whereby said second recesses are arranged radial outside to and aligned with at least two thread segments adjacent to each other in an axial direction of the closure, characterized in that f. the number of the first recesses on the inside and the rows of second recesses on the outside are equivalent with respect to each other.
A method for controlling a switch (T1, T2) that controls an electric motor power supply line from an alternating voltage source, comprising determining a switch closing instant (t f) from a measurement of the derivative of the current carried on the power supply line, characterized in that said determining includes detecting the instants at which the derivative of the current passes through zero and calculating, from said instants, the frequency of a transient voltage that appears at the terminals of the switch following a passage through zero of the current circulating through the switch when the switch is opened.
A method for facilitating communication between a user web application and an entity, the method performed by a communication server of a web communication service associated with the entity, the method comprising: receiving a request from the user web application to communicate with the entity; establishing a communication session between the user web application and an automated agent; obtaining contextual information associated with the communication session, the contextual information including information provided by the user web application and interactions the user has with the entity's website; determining, with logic of the web communication service, that the user of the user web application should be connected with a live agent associated with the entity; in response to the determining, connecting the user web application with a terminal of a determined live agent, including receiving setup information from the terminal of the live agent and forwarding the setup information to the user web application, wherein the setup information is forwarded to establish a further communication session between the terminal of the live agent and the user web application; and providing the live agent associated with the entity with the contextual information. receiving a request from the user web application to communicate with the entity; establishing a communication session between the user web application and an automated agent; obtaining contextual information associated with the communication session, the contextual information including information provided by the user web application and interactions the user has with the entity's website; determining, with logic of the web communication service, that the user of the user web application should be connected with a live agent associated with the entity; in response to the determining, connecting the user web application with a terminal of a determined live agent, including receiving setup information from the terminal of the live agent and forwarding the setup information to the user web application, wherein the setup information is forwarded to establish a further communication session between the terminal of the live agent and the user web application; and providing the live agent associated with the entity with the contextual information.
A method for evaluating a photovoltaic potential of a building from a user terminal, wherein the user terminal contains an application suitable for automatically performing steps of: - determining a value of thermal losses associated with the building, according to geographical coordinates of the building, and - estimating an energy gain value associated with an installation of photovoltaic panels on a roofing of the building, from geographical coordinates of the building, from an orientation parameter of the roofing, from a slope parameter of the roofing and from the value of thermal losses associated with the roofing, wherein the value of thermal losses is determined from thermographic data, the thermographic data including, for each building located in a given geographical area, a value of energy losses, and wherein the application is suitable for executing steps of: - transmitting a request to a remote server, the server containing the thermographic data, - receiving from the server thermographic data including data representative of the thermal losses of the building, the photovoltaic potential of which is evaluated. - determining a value of thermal losses associated with the building, according to geographical coordinates of the building, and - estimating an energy gain value associated with an installation of photovoltaic panels on a roofing of the building, from geographical coordinates of the building, from an orientation parameter of the roofing, from a slope parameter of the roofing and from the value of thermal losses associated with the roofing, wherein the value of thermal losses is determined from thermographic data, the thermographic data including, for each building located in a given geographical area, a value of energy losses, and wherein the application is suitable for executing steps of: - transmitting a request to a remote server, the server containing the thermographic data, - receiving from the server thermographic data including data representative of the thermal losses of the building, the photovoltaic potential of which is evaluated.
A cooling apparatus (100, 200, 300, 400, 500), comprising: a first cold plate (102, 202, 302, 402, 502) thermally coupleable to a first heat source; a second cold plate (106, 206, 306, 406, 506) thermally coupleable to a second heat source; a thermal interface plane (104, 204, 304, 404, 504), coupled to the first cold plate (102, 202, 302, 402, 502), and providing an adjustable coupling to mechanically and thermally couple the first cold plate (102, 202, 302, 402, 502) to the second cold plate (106, 206, 306, 406, 506) at a position of a plurality of positions, wherein the thermal interface plane (104, 204, 304, 404, 504) comprises one or more first attachment features, and wherein the second cold plate (106, 206, 306, 406, 506) comprises one or more second attachment features (206a, 306a) to implement the adjustable coupling when used in conjunction with the one or more first attachment features of the thermal interface plane (104, 204, 304, 404, 504), wherein the one or more second attachment features (206a, 306a) are provided as an elongated hole in a flange of the second cold plate (106, 206, 306, 406, 506) configured to receive a fastener, wherein the elongated hole is configured to provide a degree of freedom along an axis to provide the plurality of positions to adjust relative heights of the first cold plate (102, 202, 302, 402, 502) and the second cold plate (106, 206, 306, 406, 506). a first cold plate (102, 202, 302, 402, 502) thermally coupleable to a first heat source; a second cold plate (106, 206, 306, 406, 506) thermally coupleable to a second heat source; a thermal interface plane (104, 204, 304, 404, 504), coupled to the first cold plate (102, 202, 302, 402, 502), and providing an adjustable coupling to mechanically and thermally couple the first cold plate (102, 202, 302, 402, 502) to the second cold plate (106, 206, 306, 406, 506) at a position of a plurality of positions, wherein the thermal interface plane (104, 204, 304, 404, 504) comprises one or more first attachment features, and wherein the second cold plate (106, 206, 306, 406, 506) comprises one or more second attachment features (206a, 306a) to implement the adjustable coupling when used in conjunction with the one or more first attachment features of the thermal interface plane (104, 204, 304, 404, 504), wherein the one or more second attachment features (206a, 306a) are provided as an elongated hole in a flange of the second cold plate (106, 206, 306, 406, 506) configured to receive a fastener, wherein the elongated hole is configured to provide a degree of freedom along an axis to provide the plurality of positions to adjust relative heights of the first cold plate (102, 202, 302, 402, 502) and the second cold plate (106, 206, 306, 406, 506).
Method for adjusting energy-saving heating systems, the heating water being supplied to respective heating elements in present heating systems having a pipe network that comprises branched supply pipes, and the cooled heating water being returned from said heating elements to a boiler in a return pipe by means of adjustable shut-off devices, characterised in that all of the heating elements that form a heating circuit are adjusted to a constant supply of heating water in succession, according to the intake volume thereof associated with a particular heat capacity, only by means of individual shut-off devices in the return line, during which supply the temperature difference between the feed line and the return line to the heating element is kept in the range of 1°C to 4°C, and then these adjustments, which can be adapted to the required heating output of the spaces, are monitored at least by means of a volume flow measurement that determines a total volume in the return line of the pipe network and thus thermo-dynamic-hydraulic balancing is carried out on the heating system, such that, by minimising the temperature gradient in each of the heating elements, a higher heat capacity is achieved from the heating surfaces in the boiler which is calibrated in a controlled manner to the total volume of the liquid flows moving in the heating elements and in the pipes and which can be utilised optimally, and the required operating heating temperature is at the same time lowered, without heat being stored in the heating system.
A temperature control device, configured to maintain an operating temperature of a component of an electronic device, comprising: a temperature detection unit, configured to detect the operating temperature of the component: a heating unit, configured to heat the component according to a detection result of the temperature detection unit so that the operating temperature is between a first temperature and a second temperature; and a power supply interface respectively connected to the temperature detection unit and the heating unit and configured to supply power to the temperature detection unit and the heating unit; wherein the first temperature is a lower limit value of the operating temperature of the component, and the second temperature is an upper limit value of the operating temperature of the component, characterized in that the heating unit is a heating material converting electric energy into heat energy and is in a shape of a film covering on the electronic device and/or the component. a temperature detection unit, configured to detect the operating temperature of the component: a heating unit, configured to heat the component according to a detection result of the temperature detection unit so that the operating temperature is between a first temperature and a second temperature; and a power supply interface respectively connected to the temperature detection unit and the heating unit and configured to supply power to the temperature detection unit and the heating unit; a heating unit, configured to heat the component according to a detection result of the temperature detection unit so that the operating temperature is between a first temperature and a second temperature; and a power supply interface respectively connected to the temperature detection unit and the heating unit and configured to supply power to the temperature detection unit and the heating unit; wherein the first temperature is a lower limit value of the operating temperature of the component, and the second temperature is an upper limit value of the operating temperature of the component, characterized in that the heating unit is a heating material converting electric energy into heat energy and is in a shape of a film covering on the electronic device and/or the component.
A radio frequency mixer comprising: a first photonic modulator adapted to impose RF signals received through an input of the RF mixer onto a first optical beam; a second photonic modulator adapted to impose a LO signal from a LO signal source onto a second optical beam; the RF mixer characterised in comprising: an optical splitter arranged to split the first optical beam outputted from the first photonic modulator to provide a third optical beam and a fourth optical beam; an optical combiner adapted to combine the third optical beam with the second optical beam; a balanced photodetector circuit arranged to provide an electrical signal output corresponding to a difference between the electrical responses of: a first photodetector arranged to receive the combined third optical beam and second optical beam, and a second photodetector arranged to receive the fourth optical beam. a first photonic modulator adapted to impose RF signals received through an input of the RF mixer onto a first optical beam; a second photonic modulator adapted to impose a LO signal from a LO signal source onto a second optical beam; the RF mixer characterised in comprising: an optical splitter arranged to split the first optical beam outputted from the first photonic modulator to provide a third optical beam and a fourth optical beam; an optical combiner adapted to combine the third optical beam with the second optical beam; a balanced photodetector circuit arranged to provide an electrical signal output corresponding to a difference between the electrical responses of: a first photodetector arranged to receive the combined third optical beam and second optical beam, and a second photodetector arranged to receive the fourth optical beam. an optical splitter arranged to split the first optical beam outputted from the first photonic modulator to provide a third optical beam and a fourth optical beam; an optical combiner adapted to combine the third optical beam with the second optical beam; a balanced photodetector circuit arranged to provide an electrical signal output corresponding to a difference between the electrical responses of: a first photodetector arranged to receive the combined third optical beam and second optical beam, and a second photodetector arranged to receive the fourth optical beam. a first photodetector arranged to receive the combined third optical beam and second optical beam, and a second photodetector arranged to receive the fourth optical beam.
Floor panel for forming a floor covering, wherein this floor panel substantially is realized on the basis of synthetic thermoplastic material and preferably as a layer-shaped, either single-layer or multi-layer, substrate; wherein this floor panel is rectangular, either oblong or square, and thus comprises a first pair of opposite edges (P1, 4-5) and a second pair of opposite edges (P2, 6-7); wherein the first pair of opposite edges comprises coupling parts, which allow that a plurality of such floor panels mutually can be coupled to each other; wherein these coupling parts form a first mechanical locking system, which, in a coupled condition of two of such floor panels, effects a locking in the plane of the floor panels and perpendicular to the respective edges, as well as form a second mechanical locking system, which, in a coupled condition of two of such floor panels, effects a locking transverse to the plane of the panels; wherein these coupling parts, on the first pair of opposite edges (P1, 4-5), preferably are realized substantially in the material of the floor panel itself, and more particularly in said substrate; wherein the floor panel, on the second pair of edges (P2, 6-7), is provided with an edge configuration which allows that two of such floor panels can be positioned with their respective edges alongside each other, wherein the configuration of the edges is free from mechanical horizontally active locking systems; wherein the second pair of edges (P2, 6-7) is also free from mechanical vertically active locking systems; characterized in that the floor panel, on the second pair of edges (P2, 6-7), has an edge configuration which provides for that the actual panels extend along these edges alongside each other in an overlapping manner.
Geothermal probe comprising at least two geothermal probe tubes, of which a first forms a geothermal probe feed tube and a second forms a geothermal probe return tube, and the geothermal probe also comprises a diverter, by way of which the geothermal probe feed tube is connected to the geothermal probe return tube, wherein the at least two geothermal probe tubes comprise a first end and a second end, arranged at a distance from the first end by the length h of the geothermal probe tube, wherein the second end is intended to be lowered into the ground as the leading end, a first longitudinal portion, towards the first end, and a second longitudinal portion, towards the second end and following on from the first longitudinal portion, characterized in that the SDR value according to the equation SDR = tube outside diameter / tube wall thickness is substantially constant over the length of the first longitudinal portion and in the second longitudinal portion decreases in the direction of the second end, and in that the diverter is formed from a different material than the geothermal probe tubes.
An ion/ozone wind generation device comprising an electrode pair including a needle-shaped electrode and an opposite electrode, for generating ions and ion/ozone wind using corona discharge by generating a potential difference between the needle-shaped electrode and the opposite electrode, wherein the opposite electrode includes a plane-shaped main ring-shaped opposite electrode and a plane-shaped sub ring-shaped opposite electrode surrounding the plane-shaped main ring-shaped opposite electrode, characterized in that; the axis line of the needle-shaped electrode is located axially inwardly from the axial inner edge of the opposite electrode, the main ring-shaped opposite electrode and the sub ring-shaped opposite electrode are disposed adjacent to each other to provide a gap, the gap being surrounded by the sub ring-shaped opposite electrode and the main ring-shaped opposite electrode being surrounded by the gap, the main ring-shaped opposite electrode and the sub ring-shaped opposite electrode are placed on the same plane, a longest distance between a tip of the needle-shaped electrode and the main ring-shaped opposite electrode is shorter than a shortest distance between the tip of the needle-shaped electrode and the sub ring-shaped opposite electrode.
Electric cable comprising: - a cable core comprising a power transmissive insulated element; and - a metallic outer armor containing the cable core; wherein the outer armor comprises a carbon steel tape wound according to helical interlocked windings, characterized in that the carbon steel tape is coated with an aluminum coating layer having a thickness equal to or lower than 50 μm, and in that the cable comprises an intermetallic compound at an interface between the carbon steel tape and the aluminum coating layer, the intermetallic compound being included within an interface layer having a thickness of at least 2 μm and of 7 μm at most. - a cable core comprising a power transmissive insulated element; and - a metallic outer armor containing the cable core;