mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: obtaining first audio data of a communication session between a first device and a second device; obtaining, during the communication session, a first text string that is a transcription of the first audio data, the first text string including a first word in a first location of the transcription; directing the first text string to the first device for presentation of the first text string during the communication session; obtaining, during the communication session, a second text string that is a transcription of the first audio data, the second text string including a second word in the first location of the transcription that is different from the first word; comparing a first accuracy score of the first word to a second accuracy score of the second word; obtaining a first content score of the first word, the first content score indicating an effect of the first word on a meaning of the transcription; obtaining a second content score of the second word, the second content score indicating an effect of the second word on the meaning of the transcription; and in response to a difference between the first accuracy score and the second accuracy score satisfying a threshold and based on one or more of: the first content score of the first word and the second content score of the second word, directing the second word to the first device to replace the first word in the first location as displayed by the first device. obtaining first audio data of a communication session between a first device and a second device; obtaining, during the communication session, a first text string that is a transcription of the first audio data, the first text string including a first word in a first location of the transcription; directing the first text string to the first device for presentation of the first text string during the communication session; obtaining, during the communication session, a second text string that is a transcription of the first audio data, the second text string including a second word in the first location of the transcription that is different from the first word; comparing a first accuracy score of the first word to a second accuracy score of the second word; obtaining a first content score of the first word, the first content score indicating an effect of the first word on a meaning of the transcription; obtaining a second content score of the second word, the second content score indicating an effect of the second word on the meaning of the transcription; and in response to a difference between the first accuracy score and the second accuracy score satisfying a threshold and based on one or more of: the first content score of the first word and the second content score of the second word, directing the second word to the first device to replace the first word in the first location as displayed by the first device.
A method for the production of a compound of Formula, CH 2 =CClCF 3 said method comprising fluorinating a compound selected from the group consisting of CH 2 =CClCCl 3, CCl 2 =CClCH 2 Cl, CHCl=CClCC 2 H, and combinations of these, wherein: the fluorination reaction step comprises a gas phase reaction; the fluorinating agent is HF; and. the fluorination reaction step is carried out in the presence of a catalyst selected from a chromium-based catalyst, an iron-based catalyst and combinations of these. said method comprising fluorinating a compound selected from the group consisting of CH 2 =CClCCl 3, CCl 2 =CClCH 2 Cl, CHCl=CClCC 2 H, and combinations of these, wherein: the fluorination reaction step comprises a gas phase reaction; the fluorinating agent is HF; and. the fluorination reaction step is carried out in the presence of a catalyst selected from a chromium-based catalyst, an iron-based catalyst and combinations of these. the fluorination reaction step comprises a gas phase reaction; the fluorinating agent is HF; and. the fluorination reaction step is carried out in the presence of a catalyst selected from a chromium-based catalyst, an iron-based catalyst and combinations of these.
A mobile telephone comprising an antenna assembly, having a slot antenna, wherein the slot antenna has a first feed point for feeding in a first high-frequency signal, characterised in that the slot antenna has a second feed point, which is different from the first feed point, for feeding in a second high-frequency signal, which differs from the first high-frequency signal in terms of frequency, a first filter device is arranged at the first feed point, a second filter device is arranged at the second feed point, wherein the first filter device is configured to reduce a first interfering signal, wherein the first interfering signal in the first feed point is based on a feed of the second high-frequency signal into the second feed point, wherein the second filter device is configured to reduce a second interfering signal, wherein the second interfering signal in the second feed point is based on a feed of the first high-frequency signal into the first feed point, the first filter device comprises a first electrical line, which acts as first frequency-selective electrical short circuit in order to damp the frequency of the second high-frequency signal, and a compensation element in order to compensate for the reactive component of the frequency-selective electrical short circuit, which compensation element provides open-circuit conditions for the frequency of the first high-frequency signal, and the second filter device comprises a second electrical line, which acts as a second frequency-selective electrical short circuit, in order to damp the frequency of the first high-frequency signal, and a second compensation element in order to compensate for the reactive component of the second frequency-selective electrical short circuit, which compensation element provides open-circuit conditions for the frequency of the second high-frequency signal.
A refrigerant condenser assembly for a motor vehicle air-conditioning system, comprising - cooling tubes for conducting a refrigerant, - two collecting tubes for fluidically connecting the cooling tubes, - preferably a collecting tank having at least one flow transfer opening via which the collecting tank is fluidically connected to the cooling tubes and/or to the collecting tube, - the cooling tubes have a superheat region for cooling the vaporous refrigerant, a condensation region for condensing the refrigerant as at least one parallel portion (19, 21, 23), and a supercooling region as a supercooling parallel portion for cooling the liquid refrigerant, characterised in that the flow cross-sectional areas of the cooling tubes of the supercooling region are less than the product of 0.9 or 0.7 or 0.5 and the flow cross-sectional areas of the cooling tubes of the superheat region and the condensation region. - cooling tubes for conducting a refrigerant, - two collecting tubes for fluidically connecting the cooling tubes, - preferably a collecting tank having at least one flow transfer opening via which the collecting tank is fluidically connected to the cooling tubes and/or to the collecting tube, - the cooling tubes have a superheat region for cooling the vaporous refrigerant, a condensation region for condensing the refrigerant as at least one parallel portion (19, 21, 23), and a supercooling region as a supercooling parallel portion for cooling the liquid refrigerant,
A treatment-instrument insertion aid for aiding insertion of a treatment instrument into a body, comprising: an inner tube having flexibility into which the treatment instrument is insertable; and an outer tube having flexibility into which the inner tube is insertable, wherein both end portions of the inner tube are formed of a hard material, and an intermediate portion between the both end portions is formed of a soft material softer than the hard material, characterized in that: a bendable bending member having a cylindrical shape is attached to a distal end portion of the inner tube, and wherein the bending member is formed of a hard material same as or harder than the hard material, and partially has a thin wall part which is reduced in thickness. an inner tube having flexibility into which the treatment instrument is insertable; and an outer tube having flexibility into which the inner tube is insertable, wherein both end portions of the inner tube are formed of a hard material, and an intermediate portion between the both end portions is formed of a soft material softer than the hard material, characterized in that: a bendable bending member having a cylindrical shape is attached to a distal end portion of the inner tube, and wherein the bending member is formed of a hard material same as or harder than the hard material, and partially has a thin wall part which is reduced in thickness.
A gearbox for a gas turbine engine comprising: a first housing that includes a first auxiliary gear drive on a first portion thereof, a second housing that includes a second auxiliary gear drive on a second portion thereof, and a third housing that includes a third auxiliary gear drive on a third portion thereof, whereby the first auxiliary gear drive, the second auxiliary gear drive and the third auxiliary gear drive project outwardly in mutually divergent directions; and the housings being interconnected so that the first portion of the first housing, the second portion of the second housing and the third portion of the third housing form a substantially triangular polyhedron shape, with the second portion of the second housing disposed between the first portion of the first housing and the third portion of the third housing, wherein a first face of second housing portion forms a triangle bounded on two sides by an edge (625,635) of a first face (76A,76B) of the first and third housing portions (70,72); characterised in that the first face of the first housing portion intersects with the first face of the third housing portion along a common edge. a first housing that includes a first auxiliary gear drive on a first portion thereof, a second housing that includes a second auxiliary gear drive on a second portion thereof, and a third housing that includes a third auxiliary gear drive on a third portion thereof, whereby the first auxiliary gear drive, the second auxiliary gear drive and the third auxiliary gear drive project outwardly in mutually divergent directions; and the housings being interconnected so that the first portion of the first housing, the second portion of the second housing and the third portion of the third housing form a substantially triangular polyhedron shape, with the second portion of the second housing disposed between the first portion of the first housing and the third portion of the third housing, wherein a first face of second housing portion forms a triangle bounded on two sides by an edge (625,635) of a first face (76A,76B) of the first and third housing portions (70,72); characterised in that the first face of the first housing portion intersects with the first face of the third housing portion along a common edge.
A method for producing "Syngas" from carbon based material, characterized in that it comprises the following steps: a. introducing said material into a combustion chamber at a constant temperature between 300 and 600°C.; b. residence of said material in said combustion chamber for a time between 5 and 13 hours; said residence time allowing a combustion capable of decomposing the organic molecules of said material producing Syngas, continuously drawn off, and carbonous residues; c. residence of said carbonous residues at said temperature for a time between 7 and 13 hours with excess air; said excess air being capable of completely incinerating said carbonous residue; d. use of said Syngas and extraction of the ash produced by said combustion and by said incineration. a. introducing said material into a combustion chamber at a constant temperature between 300 and 600°C.; b. residence of said material in said combustion chamber for a time between 5 and 13 hours; said residence time allowing a combustion capable of decomposing the organic molecules of said material producing Syngas, continuously drawn off, and carbonous residues; c. residence of said carbonous residues at said temperature for a time between 7 and 13 hours with excess air; said excess air being capable of completely incinerating said carbonous residue; d. use of said Syngas and extraction of the ash produced by said combustion and by said incineration.
A rubber composition comprising: a solid rubber having a weight-average molecular weight (Mw) of 100,000 or more; and a liquid monocyclic olefin ring-opened polymer having a weight-average molecular weight (Mw) of 1,000 to 50,000, wherein a proportion of the liquid monocyclic olefin ring-opened polymer is 1 to 100 parts by weight per 100 parts by weight of the solid rubber. a solid rubber having a weight-average molecular weight (Mw) of 100,000 or more; and a liquid monocyclic olefin ring-opened polymer having a weight-average molecular weight (Mw) of 1,000 to 50,000, wherein a proportion of the liquid monocyclic olefin ring-opened polymer is 1 to 100 parts by weight per 100 parts by weight of the solid rubber.
A composite, comprising: a matrix material; and a plurality of semiconductor structures embedded in the matrix material, each semiconductor structure comprising: a nano-crystalline core comprising a group I-III-VI semiconductor material; a nano-crystalline shell comprising a second, different, semiconductor material at least partially surrounding the nano-crystalline core,; and an amorphous insulator coating surrounding and encapsulating the nano-crystalline core/nano-crystalline shell pairing, wherein the amorphous insulator coating is selected from the group consisting of silica (SiO x), titanium oxide (TiO x), zirconium oxide (ZrO x), alumina (AlO x), and hafnia (HfO x). a matrix material; and a plurality of semiconductor structures embedded in the matrix material, each semiconductor structure comprising: a nano-crystalline core comprising a group I-III-VI semiconductor material; a nano-crystalline shell comprising a second, different, semiconductor material at least partially surrounding the nano-crystalline core,; and an amorphous insulator coating surrounding and encapsulating the nano-crystalline core/nano-crystalline shell pairing, wherein the amorphous insulator coating is selected from the group consisting of silica (SiO x), titanium oxide (TiO x), zirconium oxide (ZrO x), alumina (AlO x), and hafnia (HfO x). a nano-crystalline core comprising a group I-III-VI semiconductor material; a nano-crystalline shell comprising a second, different, semiconductor material at least partially surrounding the nano-crystalline core,; and an amorphous insulator coating surrounding and encapsulating the nano-crystalline core/nano-crystalline shell pairing,
Method for operating a hybrid drive of a motor vehicle which comprises an internal combustion engine and a first electric machine, said hybrid drive, in response to a torque setpoint (M Soll, F), generating a composite torque (M Ges,Ist) which drives the motor vehicle, while in a transient operation occurring during a change in the torque setpoint (M Soll, F) by a value (ΔM Soll), the composite torque (M Ges,Ist) is generated by adding together a drive torque (M 1,Ist) generated by the internal combustion engine and a drive torque (M 2,Ist) generated by the first electric machine, at least one second electric machine being provided, which is switched on during the transient operation in order to generate the composite torque (M Ges,Ist) of the internal combustion engine and the first electric engine, characterised in that at the start of the transient period (Δt) the second electric machine is switched on with a time delay by a time offset (Δt 1) after activation of the first electric machine, or the drive torque (M 3,Ist) of the second electric machine increases with a time delay by the time offset (Δt 1) with respect to the drive torque (M 2,Ist) generated by the first electric machine, and in that, at the end of the transient period (Δt), the second electric machine is deactivated in advance of the first electric machine by a time offset (Δt 2), or the drive torque (M 3, Ist) of the second electric machine decreases in advance by a time offset (Δt 2) with respect to the drive torque (M 2,Ist) generated by the first electric machine.
A cryoablation device for the cryotreatment of tissue, comprising: an elongate catheter body having a proximal and a distal end (108, 110); a cryochamber being in fluid communication with the distal end of the elongate catheter body and having a refrigerant receiving interior and a thermally conductive wall for conductively treating tissue external to the cryochamber; and a refrigerant dispersion member being at least partially contained within the cryochamber for dispersing the refrigerant within the cryochamber across a dispersion band extending circumferentially around the cryochamber, and wherein the dispersion member is configured to concentrate the refrigerant along the dispersion band; the cryoablation device being characterized in that the dispersion member is positioned such that refrigerant enters the cryochamber before contacting the dispersion member. an elongate catheter body having a proximal and a distal end (108, 110); a cryochamber being in fluid communication with the distal end of the elongate catheter body and having a refrigerant receiving interior and a thermally conductive wall for conductively treating tissue external to the cryochamber; and a refrigerant dispersion member being at least partially contained within the cryochamber for dispersing the refrigerant within the cryochamber across a dispersion band extending circumferentially around the cryochamber, and wherein the dispersion member is configured to concentrate the refrigerant along the dispersion band; the cryoablation device being characterized in that the dispersion member is positioned such that refrigerant enters the cryochamber before contacting the dispersion member.
A method, comprising: receiving a trivalent arsenic-containing solution stream; contacting the received solution stream with a carbon additive and oxygen at an acidic pH to oxidize most or all of the arsenic from a trivalent state to a pentavalent state; separating the carbon additive from a pentavalent arsenic-containing solution stream; after separation of the carbon additive from the pentavalent arsenic-containing solution stream, contacting the pentavalent arsenic -containing solution stream with a ferric ion-containing solution to precipitate the pentavalent arsenic as scorodite and form an arsenic-depleted liquid phase; and separating the scorodite from the arsenic-depleted liquid phase. receiving a trivalent arsenic-containing solution stream; contacting the received solution stream with a carbon additive and oxygen at an acidic pH to oxidize most or all of the arsenic from a trivalent state to a pentavalent state; separating the carbon additive from a pentavalent arsenic-containing solution stream; after separation of the carbon additive from the pentavalent arsenic-containing solution stream, contacting the pentavalent arsenic -containing solution stream with a ferric ion-containing solution to precipitate the pentavalent arsenic as scorodite and form an arsenic-depleted liquid phase; and separating the scorodite from the arsenic-depleted liquid phase.
A method of controlling transmit power for a device-to-device, D2D, communication, the method comprising: determining, by a first user equipment (20; 400), to transmit a D2D discovery channel for discovering a peer user equipment; determining transmit power of the D2D discovery channel; transmitting, by the first user equipment (20; 400), the D2D discovery channel based on the determined transmit power of the D2D discovery channel; determining transmit power of a D2D data channel; and transmitting the D2D data channel to the peer user equipment based on the determined transmit power of the D2D data channel, characterized in that transmit power of the D2D discovery channel is determined based on a pathloss estimate and a parameter associated with a quantity of physical resource blocks, PRBs, for transmitting the D2D discovery channel; and transmit power of a D2D data channel is determined based on the pathloss estimate and a parameter associated with a quantity of PRBs for transmitting the D2D data channel; wherein the quantity of PRBs for transmitting the D2D data channel is configured to have various sizes, wherein the quantity of PRBs for transmitting the D2D discovery channel is fixed as 2, and wherein the pathloss estimate is determined based on a link between an evolved NodeB and the first user equipment (20; 400). determining, by a first user equipment (20; 400), to transmit a D2D discovery channel for discovering a peer user equipment; determining transmit power of the D2D discovery channel; transmitting, by the first user equipment (20; 400), the D2D discovery channel based on the determined transmit power of the D2D discovery channel; determining transmit power of a D2D data channel; and transmitting the D2D data channel to the peer user equipment based on the determined transmit power of the D2D data channel, characterized in that transmit power of the D2D discovery channel is determined based on a pathloss estimate and a parameter associated with a quantity of physical resource blocks, PRBs, for transmitting the D2D discovery channel; and transmit power of a D2D data channel is determined based on the pathloss estimate and a parameter associated with a quantity of PRBs for transmitting the D2D data channel; wherein the quantity of PRBs for transmitting the D2D data channel is configured to have various sizes, wherein the quantity of PRBs for transmitting the D2D discovery channel is fixed as 2, and wherein the pathloss estimate is determined based on a link between an evolved NodeB and the first user equipment (20; 400).
A computer-implemented method to predict a three-dimensional, 3D, radiotherapy dose distribution, the method comprising: receiving input data including a three-dimensional voxel image of a body of a patient; providing at least a portion of the input data to a deep fully convolutional neural network, FCNN; the method being characterised by further comprising the steps of: programmatically analyzing the input data using the deep FCNN to generate a 3D radiotherapy_dose distribution prediction; and providing the 3D radiotherapy_dose distribution prediction as output. receiving input data including a three-dimensional voxel image of a body of a patient; providing at least a portion of the input data to a deep fully convolutional neural network, FCNN; the method being characterised by further comprising the steps of: programmatically analyzing the input data using the deep FCNN to generate a 3D radiotherapy_dose distribution prediction; and providing the 3D radiotherapy_dose distribution prediction as output. programmatically analyzing the input data using the deep FCNN to generate a 3D radiotherapy_dose distribution prediction; and providing the 3D radiotherapy_dose distribution prediction as output.