mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by data processing apparatus, comprising: receiving a plurality of web search results responsive to a search query submitted at a user device , the plurality of web search results generated from a web corpus ; including an interface element in the plurality of web search results, the interface element being a deeplink to a particular native application and configured to, when selected at the user device, cause the native application to instantiate an instance of the native application with the search query as a parameter, wherein the user element is included after it has been determined that the particular native application is installed at the user device; providing the interface element and the plurality of web search results to the user device ; receiving the search query from the native application; modifying the search query to a more specific query identifying the particular native application, whereby the modified query limits search results responsive to the search query to be only native application search results for the particular native application; and in response to receiving the search query from the native application, providing a plurality of native application search results responsive to the modified search query within an environment of the particular native application on the user device receiving a plurality of web search results responsive to a search query submitted at a user device , the plurality of web search results generated from a web corpus ; including an interface element in the plurality of web search results, the interface element being a deeplink to a particular native application and configured to, when selected at the user device, cause the native application to instantiate an instance of the native application with the search query as a parameter, wherein the user element is included after it has been determined that the particular native application is installed at the user device; providing the interface element and the plurality of web search results to the user device ; receiving the search query from the native application; modifying the search query to a more specific query identifying the particular native application, whereby the modified query limits search results responsive to the search query to be only native application search results for the particular native application; and in response to receiving the search query from the native application, providing a plurality of native application search results responsive to the modified search query within an environment of the particular native application on the user device
Cooling apparatus , at least comprising a housing frame , a heat exchanger , an electrically driveable fan unit , a control unit and a sensor unit , wherein the fan unit is arranged in such a way that, when the fan unit is in operation, there is generated a first air stream in the direction of a first surface of the heat exchanger , wherein the housing frame has at least one air channel with an air-inlet opening and with an air-outlet opening , wherein the air channel is formed so as to be parallel to the first surface of the heat exchanger , so that, through the air channel , it is possible for there to be conducted a second air stream along the first surface , wherein at least one measurement variable is detectable by means of the sensor unit and the fan unit is controllable by means of the control unit according to the at least one detected measurement variable, characterized in that a second surface of the heat exchanger , which is situated opposite the first surface of the heat exchanger , is configured to be arranged in thermally conductive contact with a heat-emitting device , wherein the cooling apparatus is mountable onto a housing of the heat-emitting device.
An induction cooking system, comprising: a power supply bus ; a plurality of resonant inverters in connection with the power supply bus , each comprising a dedicated resonant capacitor ; a plurality of inductors configured to generate an electromagnetic field in connection with the resonant inverters ; at least one switch operable to control a plurality of switch configurations; and a tuning capacitor in connection with each of the dedicated resonant capacitors via the at least one switch ; the induction cooking device being characterised in that the at least one switch is configured to selectively connect the tuning capacitor in parallel with one of the dedicated resonant capacitors in each of the plurality of switch configurations. a power supply bus ; a plurality of resonant inverters in connection with the power supply bus , each comprising a dedicated resonant capacitor ; a plurality of inductors configured to generate an electromagnetic field in connection with the resonant inverters ; at least one switch operable to control a plurality of switch configurations; and a tuning capacitor in connection with each of the dedicated resonant capacitors via the at least one switch ; the induction cooking device being characterised in that the at least one switch is configured to selectively connect the tuning capacitor in parallel with one of the dedicated resonant capacitors in each of the plurality of switch configurations.
A lithium ion secondary battery comprising: a negative electrode comprising a negative electrode active material-containing layer ; a positive electrode ; and an electrolyte comprising Li ions and Na ions, wherein the negative electrode active material-containing layer comprises a Na-containing titanium composite oxide, and a ratio (W E /W A ) of an Na amount W E (g/g) in the electrolyte to an Na amount W A (g/g) in the negative electrode active material-containing layer satisfies Formula below: 4 × 10 − 1 ≤ W E / W A ≤ 1 × 10 3 when the Na amount W E and the Na amount W A are measured by a procedure comprising: bringing the lithium ion secondary battery into a discharged state; extracting the electrolyte from the lithium ion secondary battery to obtain an extracted electrolyte; taking the negative electrode out from the lithium ion secondary battery ; washing and drying the negative electrode to obtain a negative electrode sample; and determining the Na amount W E of the extracted electrolyte and the Na amount W A of the negative electrode active material-containing layer of the negative electrode sample, according to inductively coupled plasma emission spectrochemical analysis. a negative electrode comprising a negative electrode active material-containing layer ; a positive electrode ; and an electrolyte comprising Li ions and Na ions, wherein the negative electrode active material-containing layer comprises a Na-containing titanium composite oxide, and a ratio (W E /W A ) of an Na amount W E (g/g) in the electrolyte to an Na amount W A (g/g) in the negative electrode active material-containing layer satisfies Formula below: 4 × 10 − 1 ≤ W E / W A ≤ 1 × 10 3 when the Na amount W E and the Na amount W A are measured by a procedure comprising: bringing the lithium ion secondary battery into a discharged state; extracting the electrolyte from the lithium ion secondary battery to obtain an extracted electrolyte; taking the negative electrode out from the lithium ion secondary battery ; washing and drying the negative electrode to obtain a negative electrode sample; and determining the Na amount W E of the extracted electrolyte and the Na amount W A of the negative electrode active material-containing layer of the negative electrode sample, according to inductively coupled plasma emission spectrochemical analysis. bringing the lithium ion secondary battery into a discharged state; extracting the electrolyte from the lithium ion secondary battery to obtain an extracted electrolyte; taking the negative electrode out from the lithium ion secondary battery ; washing and drying the negative electrode to obtain a negative electrode sample; and determining the Na amount W E of the extracted electrolyte and the Na amount W A of the negative electrode active material-containing layer of the negative electrode sample, according to inductively coupled plasma emission spectrochemical analysis.
A device for machining a workpiece, namely a round bar and/or round tube, taking into account a predetermined material volume, comprising a clamping device for clamping the workpiece and a device for measuring at least one first dimension of the workpiece during clamping or in the clamped state, said at least one first dimension being a first diameter of the workpiece, a calculating device arranged for calculating at least one desired dimension, namely at least one desired diameter and/or a desired length, based at least on the measured at least one first dimension and the predetermined material volume, so that the workpiece, when brought to said at least one desired dimension, has the predetermined material volume, and a control device as well as chip removal means, characterised in that the control device is arranged to control the chip removal means in such a way that a chip removal machining of the workpiece is performed until said at least one desired dimension is reached, the device being arranged to determine said at least one first dimension via and/or by the movement of at least one clamping means and/or clamping drive of the clamping device, the chip removal machining being a machining of the length and/or of a second diameter of the workpiece.
A method comprising: receiving , via a microphone of a wearable head device, an audio signal; determining an envelope of the audio signal; estimating a reverberation time (T60[f]) based on the envelope of the audio signal; determining a time difference between the reverberation time and a previously estimated reverberation time; determining whether the time difference is greater than a time threshold; and in accordance with a determination that the time difference is greater than the time threshold, presenting, via a speaker of the wearable head device , audio content, wherein the audio content is based on the reverberation time (T60[f]). receiving , via a microphone of a wearable head device, an audio signal; determining an envelope of the audio signal; estimating a reverberation time (T60[f]) based on the envelope of the audio signal; determining a time difference between the reverberation time and a previously estimated reverberation time; determining whether the time difference is greater than a time threshold; and in accordance with a determination that the time difference is greater than the time threshold, presenting, via a speaker of the wearable head device , audio content,
A material susceptible to dielectric heating by electromagnetic radiation, the material comprising: a base polymeric material , and a dielectric heating susceptor comprising: polymeric material different from the base polymeric material and having a higher dielectric loss factor than the base polymeric material, and electrically polarisable entities dispersed within the base polymeric material; wherein the dielectric heating susceptor polymeric material is present in the form of discrete phases in the base polymeric material , forming a multiple phase morphology; and wherein the electrically polarisable entities are present in a proportion of 0.1 to 10 wt% of the material. a base polymeric material , and a dielectric heating susceptor comprising: polymeric material different from the base polymeric material and having a higher dielectric loss factor than the base polymeric material, and electrically polarisable entities dispersed within the base polymeric material; polymeric material different from the base polymeric material and having a higher dielectric loss factor than the base polymeric material, and electrically polarisable entities dispersed within the base polymeric material; wherein the dielectric heating susceptor polymeric material is present in the form of discrete phases in the base polymeric material , forming a multiple phase morphology; and wherein the electrically polarisable entities are present in a proportion of 0.1 to 10 wt% of the material.
A method for a network operating in a wireless communication system, the network comprising a first base station , a second base station and a user equipment, LTE , the method comprising: transmitting, to the UE, information for configuring (S1401) a first Medium Access Control, MAC, entity related to the first base station, and a second MAC entity related to the second base station; receiving, from the UE, power headroom reporting, PHR, triggered (S1407) by the first MAC entity and the second MAC entity respectively, based on a first type event occurring in the first MAC entity; and receiving, from the LTE, PHR triggered (S1413) by the first MAC entity only, based on a second type event occurring in the first MAC entity, characterized in that the first type event comprises: a prohibitPHR-Timer of the first MAC entity has expired when the first MAC entity has uplink resources for a new transmission and the following is true for a cell of activated serving cells belonging to the first MAC entity with configured uplink: i) there are UL resources allocated for transmission or there is a PUCCH transmission on the cell, and ii) a required power backoff due to power management for the cell has changed more than a threshold since a last transmission of a PHR to the first base station when the first MAC entity had LTL resources allocated for transmission or PUCCH transmission on the cell. transmitting, to the UE, information for configuring (S1401) a first Medium Access Control, MAC, entity related to the first base station, and a second MAC entity related to the second base station; receiving, from the UE, power headroom reporting, PHR, triggered (S1407) by the first MAC entity and the second MAC entity respectively, based on a first type event occurring in the first MAC entity; and receiving, from the LTE, PHR triggered (S1413) by the first MAC entity only, based on a second type event occurring in the first MAC entity, characterized in that the first type event comprises: a prohibitPHR-Timer of the first MAC entity has expired when the first MAC entity has uplink resources for a new transmission and the following is true for a cell of activated serving cells belonging to the first MAC entity with configured uplink: i) there are UL resources allocated for transmission or there is a PUCCH transmission on the cell, and ii) a required power backoff due to power management for the cell has changed more than a threshold since a last transmission of a PHR to the first base station when the first MAC entity had LTL resources allocated for transmission or PUCCH transmission on the cell. i) there are UL resources allocated for transmission or there is a PUCCH transmission on the cell, and ii) a required power backoff due to power management for the cell has changed more than a threshold since a last transmission of a PHR to the first base station when the first MAC entity had LTL resources allocated for transmission or PUCCH transmission on the cell.
A method of forming a bristle field for an oral care implement (100; 200), the method comprising: a) providing a bundle of bristles ; b) aligning the bundle of bristles with an insertion opening in a first surface of a guide member , the guide member comprising at least one bristle distribution passageway comprising a funnel section and a plurality of delivery passageways , each of the delivery passageways extending from the funnel section and terminating in a delivery opening on a second surface of the guide member , wherein adjacent ones of the delivery passageways are separated from one another by a divider , the funnel section comprising the insertion opening , wherein the guide member is aligned with a head plate (130; 230) of the oral care implement (100; 200) such that each of the delivery openings is aligned with a different tuft hole (131; 231) of the head plate (130; 230); and c) inserting the bundle of bristles through the bristle distribution passageway so that the bundle of bristles passes through the funnel section and is divided into a plurality of bristle tufts as a result of contact with the divider , each of the bristle tufts passing through a different one of the delivery passageways and into a different one of the tuft holes (131; 231). a) providing a bundle of bristles ; b) aligning the bundle of bristles with an insertion opening in a first surface of a guide member , the guide member comprising at least one bristle distribution passageway comprising a funnel section and a plurality of delivery passageways , each of the delivery passageways extending from the funnel section and terminating in a delivery opening on a second surface of the guide member , wherein adjacent ones of the delivery passageways are separated from one another by a divider , the funnel section comprising the insertion opening , wherein the guide member is aligned with a head plate (130; 230) of the oral care implement (100; 200) such that each of the delivery openings is aligned with a different tuft hole (131; 231) of the head plate (130; 230); and c) inserting the bundle of bristles through the bristle distribution passageway so that the bundle of bristles passes through the funnel section and is divided into a plurality of bristle tufts as a result of contact with the divider , each of the bristle tufts passing through a different one of the delivery passageways and into a different one of the tuft holes (131; 231).
Photodetector, comprising: - a absorbing region formed by a first semiconductor material having a first bandgap energy value, - a contact region made from semiconductor material, - a blocking region formed by at least a second semiconductor material configured to oppose flow of the majority charge carriers between the absorbing region and the contact region , the second semiconductor material presenting a second bandgap energy value higher than the first bandgap energy value, photodetector characterized in that the blocking region is doped and configured to form at least one quantum well by means of the second semiconductor material and a third semiconductor material having a third bandgap energy value different from the second bandgap energy value, the second semiconductor material and the third semiconductor material defining a barrier material and a potential well material, the barrier material having a bandgap energy value higher than a bandgap energy value of the potential well material, the thickness of the barrier material being greater than the thickness of the potential well material, and in that the blocking region is configured so that the charge carrier wave functions in the well materials are not coupled to one another, the charge carrier wave functions being localised in the real space of the well material and in that the blocking region is devoid of mini-bands. - a absorbing region formed by a first semiconductor material having a first bandgap energy value, - a contact region made from semiconductor material, - a blocking region formed by at least a second semiconductor material configured to oppose flow of the majority charge carriers between the absorbing region and the contact region , the second semiconductor material presenting a second bandgap energy value higher than the first bandgap energy value,
A non-oriented electrical steel sheet, comprising a chemical composition represented by: in mass%, C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.10% to 3.00%; Mn: 0.10% to 2.00%; S: 0.0030% or less; one kind or more selected from a group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: 0.0003% or more and less than 0.0015% in total; a parameter Q represented by an equation 1 when the Si content (mass%) is set to [Si], the Al content (mass%) is set to [AI], and the Mn content (mass%) is set to [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cu: 0.0% to 1.0%; Cr: 0.0% to 10.0%; and a balance: Fe and impurities, wherein: the total mass of S contained in sulfides or oxysulfides of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, or Cd is 10% or more of the total mass of S contained in the non-oriented electrical steel sheet; a crystal orientation intensity is 3.0 or more, which is measured in accordance with the description; a thickness is 0.15 mm to 0.30 mm; and an average crystal grain diameter is 65 μm to 100 μm wherein Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd are referred to as "coarse precipitate generating elements", wherein a grain diameter of a precipitate of the coarse precipitate generating element is 1 μm to 2 μm. Q = Si + 2 Al − Mn in mass%, C: 0.0030% or less; Si: 2.00% to 4.00%; Al: 0.10% to 3.00%; Mn: 0.10% to 2.00%; S: 0.0030% or less; one kind or more selected from a group consisting of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd: 0.0003% or more and less than 0.0015% in total; a parameter Q represented by an equation 1 when the Si content (mass%) is set to [Si], the Al content (mass%) is set to [AI], and the Mn content (mass%) is set to [Mn]: 2.00 or more; Sn: 0.00% to 0.40%; Cu: 0.0% to 1.0%; Cr: 0.0% to 10.0%; and a balance: Fe and impurities, wherein: the total mass of S contained in sulfides or oxysulfides of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, or Cd is 10% or more of the total mass of S contained in the non-oriented electrical steel sheet; a crystal orientation intensity is 3.0 or more, which is measured in accordance with the description; a thickness is 0.15 mm to 0.30 mm; and an average crystal grain diameter is 65 μm to 100 μm wherein Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd are referred to as "coarse precipitate generating elements", wherein a grain diameter of a precipitate of the coarse precipitate generating element is 1 μm to 2 μm. Q = Si + 2 Al − Mn the total mass of S contained in sulfides or oxysulfides of Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, or Cd is 10% or more of the total mass of S contained in the non-oriented electrical steel sheet; a crystal orientation intensity is 3.0 or more, which is measured in accordance with the description; a thickness is 0.15 mm to 0.30 mm; and an average crystal grain diameter is 65 μm to 100 μm wherein Mg, Ca, Sr, Ba, Ce, La, Nd, Pr, Zn, and Cd are referred to as "coarse precipitate generating elements", wherein a grain diameter of a precipitate of the coarse precipitate generating element is 1 μm to 2 μm. Q = Si + 2 Al − Mn
A method performed by a network node, the method comprising: the network node receiving, from a first portion of a service chain, a packet having a header portion that includes a first service chain path ID and a metadata field; the network node retrieving, according to one or more predefined rules, one or more tags included in the metadata field; the network node generating a second service chain path ID based on the one or more retrieved tags; and the network node replacing the first service chain path ID by inserting the second service chain path ID in the header portion, wherein the packet is forwarded, to a second portion of the service chain, in accordance with the second service chain path ID, wherein the first service chain path ID indicates a first area, and the second service chain path ID indicates a second area, wherein the first and second areas indicate a topological set including one of a geographical area, a base station set, and a UE set. the network node receiving, from a first portion of a service chain, a packet having a header portion that includes a first service chain path ID and a metadata field; the network node retrieving, according to one or more predefined rules, one or more tags included in the metadata field; the network node generating a second service chain path ID based on the one or more retrieved tags; and the network node replacing the first service chain path ID by inserting the second service chain path ID in the header portion, wherein the packet is forwarded, to a second portion of the service chain, in accordance with the second service chain path ID, wherein the first service chain path ID indicates a first area, and the second service chain path ID indicates a second area, wherein the first and second areas indicate a topological set including one of a geographical area, a base station set, and a UE set.