mhurhangee/ep-ind-claims huggingface dataset:
A wireless electronic device, comprising: an antenna; a first transceiver circuit comprising a Long-Term Evolution transceiver circuit; a second transceiver circuit; and characterized by: a triplexer coupled to the antenna, wherein the triplexer comprises: a first filter configured to pass radio-frequency signals in a Long-Term Evolution band between the antenna and the first transceiver circuit; a second filter configured to pass radio-frequency signals in a second frequency band between the antenna and the first transceiver circuit; and a third filter configured to pass radio-frequency signals in a third frequency band that is adjacent the first and second frequency bands between the antenna and the second transceiver circuit. an antenna; a first transceiver circuit comprising a Long-Term Evolution transceiver circuit; a second transceiver circuit; and characterized by: a triplexer coupled to the antenna, wherein the triplexer comprises: a first filter configured to pass radio-frequency signals in a Long-Term Evolution band between the antenna and the first transceiver circuit; a second filter configured to pass radio-frequency signals in a second frequency band between the antenna and the first transceiver circuit; and a third filter configured to pass radio-frequency signals in a third frequency band that is adjacent the first and second frequency bands between the antenna and the second transceiver circuit. a triplexer coupled to the antenna, wherein the triplexer comprises: a first filter configured to pass radio-frequency signals in a Long-Term Evolution band between the antenna and the first transceiver circuit; a second filter configured to pass radio-frequency signals in a second frequency band between the antenna and the first transceiver circuit; and a third filter configured to pass radio-frequency signals in a third frequency band that is adjacent the first and second frequency bands between the antenna and the second transceiver circuit. a first filter configured to pass radio-frequency signals in a Long-Term Evolution band between the antenna and the first transceiver circuit; a second filter configured to pass radio-frequency signals in a second frequency band between the antenna and the first transceiver circuit; and a third filter configured to pass radio-frequency signals in a third frequency band that is adjacent the first and second frequency bands between the antenna and the second transceiver circuit.
A method for controlling a cooker, comprising: oscillating microwave supplied to a cooking chamber, by a high-frequency heating source; and generating steam supplied to the cooking chamber, by a steam generator, wherein in a case a signal for initiating the operation of the steam generator is input before the operation of the high-frequency heating source is started, the operation of the steam generator is initiated at a preset time separately of a time when the operation of the high-frequency heating source is started, and in a case a signal for initiating the operation of the steam generator is input after the operation of the high-frequency heating source is started, the operation of the steam generator is initiated at a time when the manipulation signal is input, and the method further comprises the operation of circulating air inside the cooking chamber by a convection part in a case the steam generating operates, characterised in that the operation of the convection part ends after the operation of the steam generator is completed. oscillating microwave supplied to a cooking chamber, by a high-frequency heating source; and generating steam supplied to the cooking chamber, by a steam generator, wherein in a case a signal for initiating the operation of the steam generator is input before the operation of the high-frequency heating source is started, the operation of the steam generator is initiated at a preset time separately of a time when the operation of the high-frequency heating source is started, and in a case a signal for initiating the operation of the steam generator is input after the operation of the high-frequency heating source is started, the operation of the steam generator is initiated at a time when the manipulation signal is input, and
Pipeline comprising a measuring device for detecting particles, wherein the measuring device - comprises at least one detection unit, which is arranged in an inner pipe space (2.1) of the pipeline, wherein the inner pipe space (2.1) has a medium and/or can be flowed through by a medium, and - wherein the detection unit is designed to detect at least when different particles occur in the medium, and - wherein the detection unit comprises at least one filter unit, which is designed to provide particles to be detected with a fluorescent marking. - comprises at least one detection unit, which is arranged in an inner pipe space (2.1) of the pipeline, wherein the inner pipe space (2.1) has a medium and/or can be flowed through by a medium, and - wherein the detection unit is designed to detect at least when different particles occur in the medium, and - wherein the detection unit comprises at least one filter unit, which is designed to provide particles to be detected with a fluorescent marking.
A sheet medium flattening device, configured to be arranged in a sheet medium conveying passage and configured to flatten an inputted sheet medium, comprising: a mounting frame configured to mount and support following components; an annular passage, comprising an annular inner passage plate and an annular outer passage plate, wherein the inner passage plate has a hollow inner cavity, a heating module is arranged in the inner cavity, the heating module is configured to supply heat for the inner passage plate, the outer passage plate is an annular guiding plate surrounding the inner passage plate, and the outer passage plate is provided with a sheet medium entrance abuttingly joined with the sheet medium conveying passage; at least one pinch roller (3, 7) arranged at an outer side of the annular guiding plate, wherein a hole slot is arranged in the annular guiding plate at a position corresponding to the pinch roller (3, 7), and the pinch roller (3, 7) realizes clamping with the inner passage plate through the hole slot; a reversing mechanism arranged at the sheet medium entrance and configured to selectively convey banknotes between the conveying passage and the annular passage of the flattening device; a driving device configured to drive the inner passage plate to rotate; and a control system configured to control a temperature of the heating module and control a selectively switchover of the reversing mechanism. a mounting frame configured to mount and support following components; an annular passage, comprising an annular inner passage plate and an annular outer passage plate, wherein the inner passage plate has a hollow inner cavity, a heating module is arranged in the inner cavity, the heating module is configured to supply heat for the inner passage plate, the outer passage plate is an annular guiding plate surrounding the inner passage plate, and the outer passage plate is provided with a sheet medium entrance abuttingly joined with the sheet medium conveying passage; at least one pinch roller (3, 7) arranged at an outer side of the annular guiding plate, wherein a hole slot is arranged in the annular guiding plate at a position corresponding to the pinch roller (3, 7), and the pinch roller (3, 7) realizes clamping with the inner passage plate through the hole slot; a reversing mechanism arranged at the sheet medium entrance and configured to selectively convey banknotes between the conveying passage and the annular passage of the flattening device; a driving device configured to drive the inner passage plate to rotate; and a control system configured to control a temperature of the heating module and control a selectively switchover of the reversing mechanism.
Fuel injection valve for mounting in an installation bore of an internal combustion engine, comprising - a housing with an encircling seal groove, and - a sealing ring which is arranged in the seal groove and which serves for sealing off the housing against a wall of the installation bore, - wherein the seal groove has a first flank, which forms a combustion chamber-side end of the seal groove, and at least one second flank, which is situated opposite the first flank, and - wherein the sealing ring bears simultaneously against the first flank and against the second flank, characterized in that an encircling auxiliary groove is provided on the housing, wherein the seal groove is deeper than the auxiliary groove, and wherein the auxiliary groove is arranged so as to directly adjoin the seal groove proceeding from the second flank at that end of the seal groove which is remote from the combustion chamber. - a housing with an encircling seal groove, and - a sealing ring which is arranged in the seal groove and which serves for sealing off the housing against a wall of the installation bore, - wherein the seal groove has a first flank, which forms a combustion chamber-side end of the seal groove, and at least one second flank, which is situated opposite the first flank, and - wherein the sealing ring bears simultaneously against the first flank and against the second flank,
A Raman pumping device for amplifying a data optical signal in a fiber optic transmission system, comprising: first and second ports (12a, 12b) through which the data optical signal may respectively enter and exit the Raman pumping device; a Raman pump source for generating a Raman pump signal; and at least one combiner for combining the Raman pump signal with the data optical signal; wherein the Raman pumping device allows for selectively combining the Raman pump signal generated by the same Raman pump source, or at least parts of the same Raman pump source codirectionally or counterdirectionally with the data optical signal; wherein the Raman pumping device comprises an optical switch for selectively directing the Raman pump signal to one of: a first combiner arranged to combine the Raman pump signal and the data optical signal codirectionally; and a second combiner arranged to combine the Raman pump signal and the data optical signal counterdirectionally. first and second ports (12a, 12b) through which the data optical signal may respectively enter and exit the Raman pumping device; a Raman pump source for generating a Raman pump signal; and at least one combiner for combining the Raman pump signal with the data optical signal; wherein the Raman pumping device allows for selectively combining the Raman pump signal generated by the same Raman pump source, or at least parts of the same Raman pump source codirectionally or counterdirectionally with the data optical signal; wherein the Raman pumping device comprises an optical switch for selectively directing the Raman pump signal to one of: a first combiner arranged to combine the Raman pump signal and the data optical signal codirectionally; and a second combiner arranged to combine the Raman pump signal and the data optical signal counterdirectionally. a first combiner arranged to combine the Raman pump signal and the data optical signal codirectionally; and a second combiner arranged to combine the Raman pump signal and the data optical signal counterdirectionally.
A user equipment, UE, comprising: a configuration unit programmed/configured to configure a parameter set on the basis of higher layer signaling; and a decoding unit programmed/configured to decode a first physical downlink shared channel, PDSCH, and a second PDSCH in a serving cell; wherein in a resource element, RE, mapping for the first PDSCH and the second PDSCH, positions of cell-specific reference signals are given with at least a frequency shift of the cell-specific reference signals, and in a case that the UE is configured in transmission mode 10 for the serving cell, to decode the first PDSCH or the second PDSCH according to a detected PDCCH/EPDCCH with DCI format 1A: for the first PDSCH transmission on antenna port 7, the decoding unit uses the parameter set for determining RE mapping for the first PDSCH and the frequency shift is derived from a first parameter of the parameter set; and for the second PDSCH transmission on antenna port 0-3, the frequency shift is derived from a physical cell identity of the serving cell. a configuration unit programmed/configured to configure a parameter set on the basis of higher layer signaling; and a decoding unit programmed/configured to decode a first physical downlink shared channel, PDSCH, and a second PDSCH in a serving cell; wherein in a resource element, RE, mapping for the first PDSCH and the second PDSCH, positions of cell-specific reference signals are given with at least a frequency shift of the cell-specific reference signals, and in a case that the UE is configured in transmission mode 10 for the serving cell, to decode the first PDSCH or the second PDSCH according to a detected PDCCH/EPDCCH with DCI format 1A: for the first PDSCH transmission on antenna port 7, the decoding unit uses the parameter set for determining RE mapping for the first PDSCH and the frequency shift is derived from a first parameter of the parameter set; and for the second PDSCH transmission on antenna port 0-3, the frequency shift is derived from a physical cell identity of the serving cell. for the first PDSCH transmission on antenna port 7, the decoding unit uses the parameter set for determining RE mapping for the first PDSCH and the frequency shift is derived from a first parameter of the parameter set; and for the second PDSCH transmission on antenna port 0-3, the frequency shift is derived from a physical cell identity of the serving cell.
A watch, in particular wristwatch, comprising: a timer arrangement with an oscillation system, - wherein the oscillation system comprises: ∘ an light wave guide arrangement disposing at an light wave guide, ∘ an electro-optical converter arranged to feed a clocked light signal into the light wave guide arrangement, ∘ and an optical-electrical converter receiving the light signal from the light wave guide and arranged to generate an electrical signal based on the received light signal, - wherein the timer arrangement comprises an electronic usage signal generating device configured to generate a usage signal based on a frequency of the electrical signal, and a watch display device arranged to display the time based on the usage signal. a timer arrangement with an oscillation system, - wherein the oscillation system comprises: ∘ an light wave guide arrangement disposing at an light wave guide, ∘ an electro-optical converter arranged to feed a clocked light signal into the light wave guide arrangement, ∘ and an optical-electrical converter receiving the light signal from the light wave guide and arranged to generate an electrical signal based on the received light signal, - wherein the timer arrangement comprises an electronic usage signal generating device configured to generate a usage signal based on a frequency of the electrical signal, - wherein the oscillation system comprises: ∘ an light wave guide arrangement disposing at an light wave guide, ∘ an electro-optical converter arranged to feed a clocked light signal into the light wave guide arrangement, ∘ and an optical-electrical converter receiving the light signal from the light wave guide and arranged to generate an electrical signal based on the received light signal, ∘ an light wave guide arrangement disposing at an light wave guide, ∘ an electro-optical converter arranged to feed a clocked light signal into the light wave guide arrangement, ∘ and an optical-electrical converter receiving the light signal from the light wave guide and arranged to generate an electrical signal based on the received light signal, - wherein the timer arrangement comprises an electronic usage signal generating device configured to generate a usage signal based on a frequency of the electrical signal, and a watch display device arranged to display the time based on the usage signal.
Method for treating a composite material having a polymer matrix and a filler comprising the following steps: - receiving two-dimensional elements of composite material covered with a protective film - bringing said two-dimensional elements to a temperature below 0 °C to approach or exceed a glass transition temperature of the polymer matrix - at least partially separating the protective films from said two-dimensional cooled elements by agitation performed into a peeling machine of the two-dimensional elements, wherein the step of separating by agitation comprises the step of agitating by means of a compressed gas directed towards the two-dimensional elements to generate a turbulence, preferably a vortex, to cause peeling by means of impacts of the two-dimensional elements; and - aspirating, by means of a forced suction system, the removed films, which have a mass lower than the corresponding two-dimensional elements. - receiving two-dimensional elements of composite material covered with a protective film - bringing said two-dimensional elements to a temperature below 0 °C to approach or exceed a glass transition temperature of the polymer matrix - at least partially separating the protective films from said two-dimensional cooled elements by agitation performed into a peeling machine of the two-dimensional elements, wherein the step of separating by agitation comprises the step of agitating by means of a compressed gas directed towards the two-dimensional elements to generate a turbulence, preferably a vortex, to cause peeling by means of impacts of the two-dimensional elements; and - aspirating, by means of a forced suction system, the removed films, which have a mass lower than the corresponding two-dimensional elements.
A charging handle for a firearm comprising: a charging handle base (24; 40) having a first end and a second end; the first end arranged for positioning within the firearm; the second end having a charging handle latch (25; 90) pivotably attached thereto, the charging handle latch (25; 90) arranged to engage a receiver of the firearm to retain the second end in position; whereby a pivoting charging handle removal lever (56; 256; 356; 456) is coupled to the charging handle base (24; 40), the pivoting charging handle removal lever (56; 256; 356; 456) having three separate locations to achieve a mechanical advantage: (a) a first location which engages the charging handle base (24; 40) or the charging handle latch (25; 90), (b) a second location which engages a different part of the firearm than the charging handle base (24; 40) or the charging handle latch (25; 90), and (c) a third location exposed for application of manual force and positioned to achieve a mechanical advantage for releasing the charging handle (20; 38) when stuck in the firearm. a charging handle base (24; 40) having a first end and a second end; the first end arranged for positioning within the firearm; the second end having a charging handle latch (25; 90) pivotably attached thereto, the charging handle latch (25; 90) arranged to engage a receiver of the firearm to retain the second end in position; whereby a pivoting charging handle removal lever (56; 256; 356; 456) is coupled to the charging handle base (24; 40), the pivoting charging handle removal lever (56; 256; 356; 456) having three separate locations to achieve a mechanical advantage: (a) a first location which engages the charging handle base (24; 40) or the charging handle latch (25; 90), (b) a second location which engages a different part of the firearm than the charging handle base (24; 40) or the charging handle latch (25; 90), and (c) a third location exposed for application of manual force and positioned to achieve a mechanical advantage for releasing the charging handle (20; 38) when stuck in the firearm. (a) a first location which engages the charging handle base (24; 40) or the charging handle latch (25; 90), (b) a second location which engages a different part of the firearm than the charging handle base (24; 40) or the charging handle latch (25; 90), and (c) a third location exposed for application of manual force and positioned to achieve a mechanical advantage for releasing the charging handle (20; 38) when stuck in the firearm.
A computer-implemented method of controlling a connection between a client device and a mobile device, comprising: obtaining, at a web-based system, a session identifier, session id, based on a client device navigating to the web-based system; sending, from the web-based system, a machine readable code, MR code, that encodes the session id, to the client device; receiving, at the web-based system from a mobile device, the session id and a user token that authenticates a user of the mobile device to access content; passing, by the web-based system, the user token to a browser on the client device, wherein the browser uses the user token to obtain access to the user's content; and establishing a communication channel, through the web-based system, between the mobile device and the client device in response to receiving the session id and user token, wherein the user token has been received by an authenticating component of the mobile device in response to verifying, by the authenticating component, credentials for the user of the mobile device. obtaining, at a web-based system, a session identifier, session id, based on a client device navigating to the web-based system; sending, from the web-based system, a machine readable code, MR code, that encodes the session id, to the client device; receiving, at the web-based system from a mobile device, the session id and a user token that authenticates a user of the mobile device to access content; passing, by the web-based system, the user token to a browser on the client device, wherein the browser uses the user token to obtain access to the user's content; and establishing a communication channel, through the web-based system, between the mobile device and the client device in response to receiving the session id and user token, wherein the user token has been received by an authenticating component of the mobile device in response to verifying, by the authenticating component, credentials for the user of the mobile device.
A handle for a wet shaver, having: - a handle body adapted to be held by a user; and - a head supporting portion adapted to support a shaver head having at least one blade, wherein the handle body has a cell structure (15, 16) formed by juxtaposed hollow cells at least partly separated by solid walls, said juxtaposed hollow cells being oriented in more than one direction, characterized in that, said handle body has an outside surface defining a shape of said handle body and said cell structure (15, 16) includes a grid shell structure forming a skin which continuously extends according to said outside surface and surrounds an inner volume, the grid shell structure forming said hollow cells which are open toward the inner volume and at the outside surface, and said solid walls separating said hollow cells parallel to said outside surface. - a handle body adapted to be held by a user; and - a head supporting portion adapted to support a shaver head having at least one blade,