mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal device adapted to communicate with a base station device , the terminal station device comprising: a higher layer processing unit configured to set, by signaling of a higher layer from the base station , at least one first radio access technology, RAT, at least one second RAT, a first physical parameter for the first RAT, and a second physical parameter for the second RAT, wherein the second RAT is different from the first RAT and the higher layer is a layer higher than a physical layer; and a receiving unit configured to receive a first transmission signal in the first RAT and a second transmission signal in the second RAT, wherein the first transmission signal received in the first RAT is a transmission signal mapped to a resource element configured on a basis of the first physical parameter for each sub frame, and the second transmission signal received in the second RAT is a transmission signal mapped to a resource element configured on a basis of the second physical parameter in a predetermined resource included in each of the sub frames, characterized in that the terminal device is adapted such that each of the resource elements to which the second transmission signal in the second RAT is mapped is configured using a predetermined number of sub resource elements corresponding to the second physical parameter, wherein a bandwidth in the sub resource elements and/or a time length in the sub resource elements is specified in advance and the sub resource elements correspond to the same bandwidth and time length as sub resource elements in the first RAT. a higher layer processing unit configured to set, by signaling of a higher layer from the base station , at least one first radio access technology, RAT, at least one second RAT, a first physical parameter for the first RAT, and a second physical parameter for the second RAT, wherein the second RAT is different from the first RAT and the higher layer is a layer higher than a physical layer; and a receiving unit configured to receive a first transmission signal in the first RAT and a second transmission signal in the second RAT, wherein the first transmission signal received in the first RAT is a transmission signal mapped to a resource element configured on a basis of the first physical parameter for each sub frame, and the second transmission signal received in the second RAT is a transmission signal mapped to a resource element configured on a basis of the second physical parameter in a predetermined resource included in each of the sub frames, characterized in that the terminal device is adapted such that each of the resource elements to which the second transmission signal in the second RAT is mapped is configured using a predetermined number of sub resource elements corresponding to the second physical parameter, wherein a bandwidth in the sub resource elements and/or a time length in the sub resource elements is specified in advance and the sub resource elements correspond to the same bandwidth and time length as sub resource elements in the first RAT.
A multi-mode sensor , comprising: an inductive sensor module configured to measure a first physical quantity based on magnetic induction, the inductive sensor module comprising a coil wound around a coil axis ; and a non-inductive sensor module configured to measure a second physical quantity using a non-inductive sensing mode, wherein: a portion of the non-inductive sensor module is radially inward of a portion of the coil relative to the coil axis ; wherein the non-inductive sensor module comprises a probe unit and an optical interrogation system configured to exchange electromagnetic radiation with the probe unit in order to interrogate a state of the probe unit that is dependent on the second physical quantity; and the second physical quantity comprises pressure and the probe unit is configured to undergo a deformation or displacement in response to pressure adjacent to the sensor . an inductive sensor module configured to measure a first physical quantity based on magnetic induction, the inductive sensor module comprising a coil wound around a coil axis ; and a non-inductive sensor module configured to measure a second physical quantity using a non-inductive sensing mode, wherein: a portion of the non-inductive sensor module is radially inward of a portion of the coil relative to the coil axis ; wherein the non-inductive sensor module comprises a probe unit and an optical interrogation system configured to exchange electromagnetic radiation with the probe unit in order to interrogate a state of the probe unit that is dependent on the second physical quantity; and the second physical quantity comprises pressure and the probe unit is configured to undergo a deformation or displacement in response to pressure adjacent to the sensor . a portion of the non-inductive sensor module is radially inward of a portion of the coil relative to the coil axis ; wherein the non-inductive sensor module comprises a probe unit and an optical interrogation system configured to exchange electromagnetic radiation with the probe unit in order to interrogate a state of the probe unit that is dependent on the second physical quantity; and the second physical quantity comprises pressure and the probe unit is configured to undergo a deformation or displacement in response to pressure adjacent to the sensor .
A travel control method for a vehicle for executing autonomous lane change control which operates a steering actuator so as to autonomously control a subject vehicle (V0) to change a lane from a subject vehicle lane (L1) in which the subject vehicle (V0) travels to an adjacent lane (L2), the travel control method comprising: upon execution of the autonomous lane change control, increasing a lateral speed (Vh) of the subject vehicle (V0) within the subject vehicle lane (L1); and thereafter decreasing the lateral speed (Vh) of the subject vehicle (V0) within the subject vehicle lane (L1); and executing the autonomous lane change control, characterized in that the subject vehicle (V0) changes the traveling lane from the subject lane (L1) to the adjacent lane (L2) while decelerating lateral speed (Vh). upon execution of the autonomous lane change control, increasing a lateral speed (Vh) of the subject vehicle (V0) within the subject vehicle lane (L1); and thereafter decreasing the lateral speed (Vh) of the subject vehicle (V0) within the subject vehicle lane (L1); and executing the autonomous lane change control, characterized in that the subject vehicle (V0) changes the traveling lane from the subject lane (L1) to the adjacent lane (L2) while decelerating lateral speed (Vh).
Latch for a motor vehicle, in particular a tailgate latch , comprising a locking mechanism having a catch and at least one pawl , a latch holder , it being possible for the latch holder to be brought into engagement with the locking mechanism in at least one ratchet position, a drive element and a pivotable mounting point for the pawl , it being possible for the pawl to be actuated by means of at least one coupling rod and by the drive element , in which the coupling rod interacts with the pawl by means of a coupling member having a transmission, the coupling member being pivotally received in a housing and/or a latch case of the motor vehicle latch , the coupling member having a first mounting point for the coupling rod and a second mounting point for the pawl, characterized in that the mounting points of the pawl and the coupling rod are arranged on different radii around the mounting point of the coupling member on the coupling member .
Bearing device for bearing at least one floor module on a support structure of a rail vehicle, the bearing device having at least one receiving element , the receiving element having or forming at least one fastening means for fastening the at least one floor module, the floor module forming or providing a portion of a floor in the rail vehicle, characterised in that said bearing device comprises at least one bearing element , said receiving element being floatably bearingable on a surface of said support structure in a first direction (x) by means of said at least one bearing element, said first direction (x) being oriented fully parallel to a floor surface of said floor module when said floor module is fastened to said bearing device ..
A method for prognosticating HER2+ breast cancer in a subject, comprising: a) measuring the amount of miRNA 200b-3pin a sample from the subject; b) comparing said amount measured in step a) to a reference value; c) finding a deviation or no deviation of the amount measured in step a) to the reference value; and d) attributing said finding of deviation or no deviation to a particular diagnosis and/or prognosis of HER2+ breast cancer in the subject. a) measuring the amount of miRNA 200b-3pin a sample from the subject; b) comparing said amount measured in step a) to a reference value; c) finding a deviation or no deviation of the amount measured in step a) to the reference value; and d) attributing said finding of deviation or no deviation to a particular diagnosis and/or prognosis of HER2+ breast cancer in the subject.
A method for selectively depleting animal nucleic acids from non-animal nucleic acids in a sample, comprising animal cells and at least one further type of cells, selected from microbial cells and plant cells or a combination thereof, comprising the steps of: i) lysing at least 90% of the animal cells while at least 90% of the microbial and/or plant cells remain intact in the sample by contacting the sample with a lysis solution A to obtain a mixture comprising the intact microbial cells and/or plant cells as well as the animal nucleic acids released from the lysed animal cells into solution, wherein said lysis solution A comprises at least one saponin, a water-soluble salt selected from the group comprising acetates, sulfates, glutamates and mixture thereof, a viscosity modifying agent being a sugar and optionally a polyanionic sulfonate, iii) digesting both, DNA and RNA, of the animal nucleic acids in the presence of the intact microbial and/or plant cells, v) separating at least 80% of the liquid part of the sample from the microbial and/or plant cells, wherein the liquid part of the sample includes the digested animal nucleic acids. i) lysing at least 90% of the animal cells while at least 90% of the microbial and/or plant cells remain intact in the sample by contacting the sample with a lysis solution A to obtain a mixture comprising the intact microbial cells and/or plant cells as well as the animal nucleic acids released from the lysed animal cells into solution, wherein said lysis solution A comprises at least one saponin, a water-soluble salt selected from the group comprising acetates, sulfates, glutamates and mixture thereof, a viscosity modifying agent being a sugar and optionally a polyanionic sulfonate, iii) digesting both, DNA and RNA, of the animal nucleic acids in the presence of the intact microbial and/or plant cells, v) separating at least 80% of the liquid part of the sample from the microbial and/or plant cells, wherein the liquid part of the sample includes the digested animal nucleic acids.
A method for packaging articles (A) comprising: - feeding in respective longitudinal directions a first and a second continuous paper sheet , at least one of which has a thermally-activated adhesive on one surface, - tensioning said first and second continuous paper sheet along respective longitudinal directions with a longitudinal tension comprised between 50 and 200 N, - heating said first and second continuous paper sheet on respective heating rollers while tensioned in longitudinal direction, - feeding a flow of articles (A) between said first and second continuous paper sheet , - overlapping the heated and tensioned first and second continuous paper sheet on opposite sides of said flow of articles (A), and - compressing said first and second continuous paper sheet around said articles (A) to fix to each other said first and second continuous paper sheet by said thermally-activated adhesive. - feeding in respective longitudinal directions a first and a second continuous paper sheet , at least one of which has a thermally-activated adhesive on one surface, - tensioning said first and second continuous paper sheet along respective longitudinal directions with a longitudinal tension comprised between 50 and 200 N, - heating said first and second continuous paper sheet on respective heating rollers while tensioned in longitudinal direction, - feeding a flow of articles (A) between said first and second continuous paper sheet , - overlapping the heated and tensioned first and second continuous paper sheet on opposite sides of said flow of articles (A), and - compressing said first and second continuous paper sheet around said articles (A) to fix to each other said first and second continuous paper sheet by said thermally-activated adhesive.
A method comprising: receiving a user query spoken by a user at a microphone of a streaming audio player ; rendering a speech response to the user query with the streaming audio player with a first equalization profile applied to the response to the user query; and rendering entertainment audio with the streaming audio player with a second equalization profile different than the first equalization profile applied to the entertainment audio, wherein the streaming audio player identifies a wake word spoken by the user and preceding the user query so that the streaming audio player interprets the user query as one to which the user desires a response, and wherein the streaming audio player lowers a volume of the entertainment audio responsive to identifying the wake word. receiving a user query spoken by a user at a microphone of a streaming audio player ; rendering a speech response to the user query with the streaming audio player with a first equalization profile applied to the response to the user query; and rendering entertainment audio with the streaming audio player with a second equalization profile different than the first equalization profile applied to the entertainment audio, wherein the streaming audio player identifies a wake word spoken by the user and preceding the user query so that the streaming audio player interprets the user query as one to which the user desires a response, and wherein the streaming audio player lowers a volume of the entertainment audio responsive to identifying the wake word.
A superlattice thermoelectric material having a composition of a following Chemical Formula 1: <Chemical Formula 1> (AX) n (D 2 X' 3 ) m , wherein, in the Chemical Formula 1, A is at least one of Ge, Sn, and Pb, each of X and X' is a chalcogen element, and at least one of S, Se, and Te, D is at least one of Bi and Sb, each of n and m is an integer between 1 and 100, wherein a sum of n and m has a constant value, , characterised in that A or X is at least partially substituted with a dopant, wherein a topologically protected metallic interface is present at an interface between the AX substance and the D 2 X' 3 substance. A is at least one of Ge, Sn, and Pb, each of X and X' is a chalcogen element, and at least one of S, Se, and Te, D is at least one of Bi and Sb, each of n and m is an integer between 1 and 100, wherein a sum of n and m has a constant value, , characterised in that A or X is at least partially substituted with a dopant, wherein a topologically protected metallic interface is present at an interface between the AX substance and the D 2 X' 3 substance.
Support for carrying a sensor system like a thermal imaging system , the support being adapted to be detachably connected to a headpiece , in particular a helmet like a fireman's helmet, the support comprising: a securing unit adapted to be fastened to the headpiece , the securing unit comprising means for detachably fastening the securing unit to the headpiece , in particular without modifying the headpiece ; a base unit connected to the securing unit or being part of the same; arms comprising first ends and second ends and extending laterally from the base unit in a generally u-shaped form so that the second ends are positioned around a wearer's ears characterized in that the arms comprise a mounting adapter for pivotably mounting components of the sensor system. a securing unit adapted to be fastened to the headpiece , the securing unit comprising means for detachably fastening the securing unit to the headpiece , in particular without modifying the headpiece ; a base unit connected to the securing unit or being part of the same; arms comprising first ends and second ends and extending laterally from the base unit in a generally u-shaped form so that the second ends are positioned around a wearer's ears characterized in that the arms comprise a mounting adapter for pivotably mounting components of the sensor system.
A modified replicating wildtype adenovirus of serotype 5 having lytic activity in target cancer cells comprising: a) a E1A gene deletion wherein the deletion is of base pairs 923-946; b) a 5/3 chimeric substitution of a knob of an adenoviral fiber protein wherein the knob of serotype 5 Ad is replaced by the knob of a serotype 3 Ad; c) a 14.7k gene deletion wherein the deletion is of base pairs 30446-30460 with respect to the wild type adenovirus and wherein the deleted sequence GGA GGA GAT GAC TGA is substituted for GGA GGA GAC GAC TGA; and d) a gp19k gene deletion and a 7.1k gene deletion wherein the deletions are of base pairs 28541-29211 with respect to the wild type adenovirus. a) a E1A gene deletion wherein the deletion is of base pairs 923-946; b) a 5/3 chimeric substitution of a knob of an adenoviral fiber protein wherein the knob of serotype 5 Ad is replaced by the knob of a serotype 3 Ad; c) a 14.7k gene deletion wherein the deletion is of base pairs 30446-30460 with respect to the wild type adenovirus and wherein the deleted sequence GGA GGA GAT GAC TGA is substituted for GGA GGA GAC GAC TGA; and d) a gp19k gene deletion and a 7.1k gene deletion wherein the deletions are of base pairs 28541-29211 with respect to the wild type adenovirus.
An air inlet section for an enclosure for an aircraft engine , comprising: an inner barrel panel having a forward end ; an outer barrel panel having a forward end ; a lipskin having an interior surface and an exterior surface , wherein the interior surface and the exterior surface oppose one another, the lipskin extending between an inner barrel end and an outer barrel end , wherein the inner barrel end is disposed proximate the forward end of the inner barrel panel and the outer barrel end is disposed proximate the forward end of the outer barrel panel ; and a forward bulkhead having a panel that extends between an outer radial end and an inner radial end ; wherein the air inlet section is configured as an annular structure that extends circumferentially around an axially extending centerline , with the inner barrel panel disposed radially inside of and separated from the outer barrel panel , and the inner barrel panel , the outer barrel panel , and the lipskin define an interior annular region , and the forward bulkhead defines a sub-portion of interior annular region ; wherein the outer radial end of the forward bulkhead panel is disposed forward of the inner radial end of the forward bulkhead panel ; characterised in that the forward bulkhead panel extends along a straight line and is canted at a cant angle (β) relative to a perpendicular line extending from the axially extending centerline , and the cant angle (β) is at least ten degrees. an inner barrel panel having a forward end ; an outer barrel panel having a forward end ; a lipskin having an interior surface and an exterior surface , wherein the interior surface and the exterior surface oppose one another, the lipskin extending between an inner barrel end and an outer barrel end , wherein the inner barrel end is disposed proximate the forward end of the inner barrel panel and the outer barrel end is disposed proximate the forward end of the outer barrel panel ; and a forward bulkhead having a panel that extends between an outer radial end and an inner radial end ; wherein the air inlet section is configured as an annular structure that extends circumferentially around an axially extending centerline , with the inner barrel panel disposed radially inside of and separated from the outer barrel panel , and the inner barrel panel , the outer barrel panel , and the lipskin define an interior annular region , and the forward bulkhead defines a sub-portion of interior annular region ; wherein the outer radial end of the forward bulkhead panel is disposed forward of the inner radial end of the forward bulkhead panel ; characterised in that the forward bulkhead panel extends along a straight line and is canted at a cant angle (β) relative to a perpendicular line extending from the axially extending centerline , and the cant angle (β) is at least ten degrees.
Method for the manufacture of at least first and second assemblies which are single-helix assemblies with an openness of M1 filamentary elements and M2 filamentary elements, at least one of the first and second assemblies comprising several filamentary elements wound together in a helix, characterized in that it comprises: - a step of assembling M filamentary elements together into a layer of the M filamentary elements around a temporary core to form a temporary assembly , and - a step of splitting the temporary assembly into at least the first and second assemblies of M1 filamentary elements and M2 filamentary elements; in which each filamentary element comprises a single elementary monofilament. - a step of assembling M filamentary elements together into a layer of the M filamentary elements around a temporary core to form a temporary assembly , and - a step of splitting the temporary assembly into at least the first and second assemblies of M1 filamentary elements and M2 filamentary elements; in which each filamentary element comprises a single elementary monofilament.