mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving data in a first series of blocks (410;412;414;416;418) each having a first number of audio samples; repackaging the data into a second series of blocks (420;422;424;426) each having a second number of audio samples, characterized in that the second number of audio samples is a non-integer fraction of the first number of audio samples; and transmitting the second series of blocks over a series of fixed duration time intervals as said blocks are assembled, wherein received data that has not been included in a block of the second series of blocks is included in the next block of the second series of blocks to be transmitted. receiving data in a first series of blocks (410;412;414;416;418) each having a first number of audio samples; repackaging the data into a second series of blocks (420;422;424;426) each having a second number of audio samples, characterized in that the second number of audio samples is a non-integer fraction of the first number of audio samples; and transmitting the second series of blocks over a series of fixed duration time intervals as said blocks are assembled, wherein received data that has not been included in a block of the second series of blocks is included in the next block of the second series of blocks to be transmitted.
A fluid guidance device, in particular a blow-by device, comprising at least one current-conducting unit that is electrically contacted by means of a plug which is inserted into a plug portion of the unit, comprising a connector on the inflow side and a connector on the outflow side for connection to a fluid flow path, there being assigned to a connector a coupling piece that, in a desired position that makes correct function possible, moves a blocking part into a release position or holds it in this release position in which the plug can be inserted into a plug receptacle of the plug portion and that, in a position different from the desired position, releases the blocking part so that the latter can be moved back into its blocking position.
A particle sensing device comprising: a sensor including a sensing path through which air passes; and a flow path housing which accommodates the sensor and guides air suctioned into the flow path housing from an outside, wherein the flow path housing includes: a first suction path which guides air into the sensing path in a first direction when connected to the sensing path; and a second suction path which guides air, after changing flow direction inside the flow path housing, to flow in an obliquely upward second direction into the sensing path when connected to the sensing path, and the sensor is rotatably installed and is selectively connected to one of the first suction path and the second suction path according to a rotation angle of the sensor wherein: the first suction path is configured to guide all of the air suctioned from the outside into the sensing path based on the sensor being connected to the first suction path, and the second suction path is configured to guide only a portion of the air suctioned from the outside into the sensing path based on the sensor being connected to the second suction path. a sensor including a sensing path through which air passes; and a flow path housing which accommodates the sensor and guides air suctioned into the flow path housing from an outside, wherein the flow path housing includes: a first suction path which guides air into the sensing path in a first direction when connected to the sensing path; and a second suction path which guides air, after changing flow direction inside the flow path housing, to flow in an obliquely upward second direction into the sensing path when connected to the sensing path, and a first suction path which guides air into the sensing path in a first direction when connected to the sensing path; and a second suction path which guides air, after changing flow direction inside the flow path housing, to flow in an obliquely upward second direction into the sensing path when connected to the sensing path, and the sensor is rotatably installed and is selectively connected to one of the first suction path and the second suction path according to a rotation angle of the sensor wherein: the first suction path is configured to guide all of the air suctioned from the outside into the sensing path based on the sensor being connected to the first suction path, and the second suction path is configured to guide only a portion of the air suctioned from the outside into the sensing path based on the sensor being connected to the second suction path. the first suction path is configured to guide all of the air suctioned from the outside into the sensing path based on the sensor being connected to the first suction path, and the second suction path is configured to guide only a portion of the air suctioned from the outside into the sensing path based on the sensor being connected to the second suction path.
A radio apparatus, comprising: a generator which generates a burst signal that contains: a legacy signal corresponding to a first antenna of said radio apparatus, said legacy signal including at least a legacy Short Training Signal and a legacy Long Training Signal; Multiple Input Multiple Output (MIMO) training signals each corresponding to an antenna of a plurality of antennas of said radio apparatus, said plurality of antennas including said first antenna, the number of said Multiple Input Multiple Output (MIMO) training signals is equal to the channels to be estimated, each Multiple Input Multiple Output (MIMO) training signal including at least a Multiple Input Multiple Output (MIMO) Long Training Signal, a data signal corresponding to a number of antennas which is smaller than said plurality of antennas and includes at least said first antenna; a transmitter (20,22) which transmits said burst signal to a targeted radio apparatus compatible with a variable data rate; and a control unit which generates a request signal to request the targeted radio apparatus to supply information on a data rate suitable for a radio channel between said radio apparatus and the targeted radio apparatus and which transmits the generated request wherein said request signal is included in said data signal. a generator which generates a burst signal that contains: a legacy signal corresponding to a first antenna of said radio apparatus, said legacy signal including at least a legacy Short Training Signal and a legacy Long Training Signal; Multiple Input Multiple Output (MIMO) training signals each corresponding to an antenna of a plurality of antennas of said radio apparatus, said plurality of antennas including said first antenna, the number of said Multiple Input Multiple Output (MIMO) training signals is equal to the channels to be estimated, each Multiple Input Multiple Output (MIMO) training signal including at least a Multiple Input Multiple Output (MIMO) Long Training Signal, a data signal corresponding to a number of antennas which is smaller than said plurality of antennas and includes at least said first antenna; a transmitter (20,22) which transmits said burst signal to a targeted radio apparatus compatible with a variable data rate; and a control unit which generates a request signal to request the targeted radio apparatus to supply information on a data rate suitable for a radio channel between said radio apparatus and the targeted radio apparatus and which transmits the generated request wherein said request signal is included in said data signal.
A gas turbine engine comprising: a rotor hub including a substantially axially extending projection and a substantially radially extending projection; a seal ring including a body portion and at least one knife edge extending outward from the body portion, a recess in the body portion for accepting the axially extending portion of the rotor hub, and at least one cooling passage (112, 116; 120, 124) extending through the seal ring; and a lock ring in abutting contact with the seal ring and the radially extending projection on the rotor hub for securing the seal ring to the rotor hub; characterised in that: an axially downstream-most surface on the seal ring is located upstream of a contact surface on the lock ring, and the contact surface axially abuts the seal ring. a rotor hub including a substantially axially extending projection and a substantially radially extending projection; a seal ring including a body portion and at least one knife edge extending outward from the body portion, a recess in the body portion for accepting the axially extending portion of the rotor hub, and at least one cooling passage (112, 116; 120, 124) extending through the seal ring; and a lock ring in abutting contact with the seal ring and the radially extending projection on the rotor hub for securing the seal ring to the rotor hub; characterised in that: an axially downstream-most surface on the seal ring is located upstream of a contact surface on the lock ring, and the contact surface axially abuts the seal ring.
An insert made of a textile fabric for being received in a jacket wall of a cylindrical case made of a combustible, felted fibrous material, and is suitable for receiving granular propellant powder, characterized in that the textile fabric is a knitwear which is constructed of a natural fiber yarn and a natural fiber-plastic blended yarn, wherein the natural fiber-plastic blended yarn has a content of natural fiber from 70% to 95% and/or a content of plastic fiber from 5% to 30%.
A balloon catheter comprising: a proximal shaft; a distal shaft; an intermediate shaft that is positioned between the proximal shaft and the distal shaft; a lumen (122, 132, 142, 162) that penetrates through the proximal shaft, the intermediate shaft, and the distal shaft and introduces and discharges a dilation fluid for a balloon; an inner tube shaft penetrating through the lumen of the distal shaft has a lumen allowing for a guide wire opening arranged at a boundary between the intermediate shaft and the distal shaft and through which the lumen (122, 132, 142, 162) extends; and a reinforcement member that is arranged in the lumen (122, 132, 142, 162) so as to suppress an occurrence of a kink, characterized in that the reinforcement member has a tapered proximal portion which is fixed to the proximal shaft and arranged inside the lumen (122, 132, 142, 162) positioned in the intermediate shaft, a tapered distal portion which is arranged inside the lumen (122, 132, 142, 162) positioned in the distal shaft, and a straight transition portion which is positioned between the proximal portion and the distal portion, and wherein the transition portion is aligned with the guide wire opening. a proximal shaft; a distal shaft; an intermediate shaft that is positioned between the proximal shaft and the distal shaft; a lumen (122, 132, 142, 162) that penetrates through the proximal shaft, the intermediate shaft, and the distal shaft and introduces and discharges a dilation fluid for a balloon; an inner tube shaft penetrating through the lumen of the distal shaft has a lumen allowing for a guide wire opening arranged at a boundary between the intermediate shaft and the distal shaft and through which the lumen (122, 132, 142, 162) extends; and a reinforcement member that is arranged in the lumen (122, 132, 142, 162) so as to suppress an occurrence of a kink, characterized in that the reinforcement member has a tapered proximal portion which is fixed to the proximal shaft and arranged inside the lumen (122, 132, 142, 162) positioned in the intermediate shaft, a tapered distal portion which is arranged inside the lumen (122, 132, 142, 162) positioned in the distal shaft, and a straight transition portion which is positioned between the proximal portion and the distal portion, and wherein the transition portion is aligned with the guide wire opening.
An odor-controlling composition having reduced chlorine smell, comprising: at least one fragrance; and a halo active aromatic sulfonamide compound of Formula: wherein R 1, R 2, R 3, R 4, and R 5 are independently selected from hydrogen, COOR', CON(R") 2, alkoxy, CN, NO 2, SO 3 R", halogen, substituted or unsubstituted phenyl, whereby one or more hydrogen atoms may be independently replaced with a hydroxyl or halogen when the phenyl is substituted, sulfonamide, halosulfonamide, and substituted or unsubstituted C 1 -C 12 alkyl, whereby one or more hydrogen atoms may be independently replaced with hydroxyl or halogen when the alkyl group is substituted; R' is hydrogen, an alkali metal, an alkaline earth metal, substituted C 1 -C 12 alkyl, or unsubstituted C 1 -C 12 alkyl; and R" is hydrogen or substituted or unsubstituted C 1 -C 12 alkyl, where the two R" groups in CON(R") 2 may be independently selected; X is halogen; M is an alkali or alkaline earth metal; and n is the number of water molecules per molecule of the sulfonamide compound, and wherein the fragrance is linalool, linalyl acetate or bisabolol. at least one fragrance; and a halo active aromatic sulfonamide compound of Formula: wherein R 1, R 2, R 3, R 4, and R 5 are independently selected from hydrogen, COOR', CON(R") 2, alkoxy, CN, NO 2, SO 3 R", halogen, substituted or unsubstituted phenyl, whereby one or more hydrogen atoms may be independently replaced with a hydroxyl or halogen when the phenyl is substituted, sulfonamide, halosulfonamide, and substituted or unsubstituted C 1 -C 12 alkyl, whereby one or more hydrogen atoms may be independently replaced with hydroxyl or halogen when the alkyl group is substituted; R' is hydrogen, an alkali metal, an alkaline earth metal, substituted C 1 -C 12 alkyl, or unsubstituted C 1 -C 12 alkyl; and R" is hydrogen or substituted or unsubstituted C 1 -C 12 alkyl, where the two R" groups in CON(R") 2 may be independently selected; X is halogen; M is an alkali or alkaline earth metal; and n is the number of water molecules per molecule of the sulfonamide compound, and wherein the fragrance is linalool, linalyl acetate or bisabolol. wherein R 1, R 2, R 3, R 4, and R 5 are independently selected from hydrogen, COOR', CON(R") 2, alkoxy, CN, NO 2, SO 3 R", halogen, substituted or unsubstituted phenyl, whereby one or more hydrogen atoms may be independently replaced with a hydroxyl or halogen when the phenyl is substituted, sulfonamide, halosulfonamide, and substituted or unsubstituted C 1 -C 12 alkyl, whereby one or more hydrogen atoms may be independently replaced with hydroxyl or halogen when the alkyl group is substituted; R' is hydrogen, an alkali metal, an alkaline earth metal, substituted C 1 -C 12 alkyl, or unsubstituted C 1 -C 12 alkyl; and R" is hydrogen or substituted or unsubstituted C 1 -C 12 alkyl, where the two R" groups in CON(R") 2 may be independently selected; X is halogen; M is an alkali or alkaline earth metal; and n is the number of water molecules per molecule of the sulfonamide compound,
Electric motor having a stator assembled from single teeth, and having a stator winding constructed from winding wire sections, wherein contact elements are provided for interconnecting the stator winding, wherein the contact elements have a connection region for fastening the contact element to the stator, wherein the contact elements have a first and a second clamping region, wherein a winding wire section is received in the first clamping region and is electrically connected, in particular connected by welding, in particular connected by contact welding, wherein a wire, in particular a strand, is received in the second clamping region and is electrically connected, in particular connected by welding, in particular connected by contact welding, wherein the second clamping region is oriented in the axial direction so that the wire in the second clamping region is oriented in the circumferential direction, wherein the first clamping region is oriented perpendicular to the axial direction, in particular is oriented in the circumferential direction, so that the winding wire in the first clamping region is oriented in the axial direction, wherein the second clamping region is at a distance from the first clamping region in the axial direction, that is to say in particular in the axial direction of the rotor of the electric motor, wherein the wire, in particular the strand, is connected to second clamping regions of contact elements, which are supported on respective end caps, characterized in that the wire, in particular the strand, runs in a meandering manner between a first and a second radial distance at an axial location between the plurality of contact elements, wherein the first radial distance is smaller than the second radial distance.
A light detection sensor comprising: a light source for radiating light to a detection object; and a light receiver comprising a plurality of detectors for detecting intensity of light from the detection object, wherein the plurality of detectors comprises at least, a first detector for detecting intensity of light of a first wavelength band, and a second detector for detecting intensity of light of a second wavelength band different from the first wavelength band, wherein sensitivity of the first detector to the light of the first wavelength band is lower than sensitivity of the second detector to the light of the second wavelength band, and a light receiving area of the first detector is larger than a light receiving area of the second detector. a light source for radiating light to a detection object; and a light receiver comprising a plurality of detectors for detecting intensity of light from the detection object, wherein the plurality of detectors comprises at least, a first detector for detecting intensity of light of a first wavelength band, and a second detector for detecting intensity of light of a second wavelength band different from the first wavelength band, wherein sensitivity of the first detector to the light of the first wavelength band is lower than sensitivity of the second detector to the light of the second wavelength band, and a light receiving area of the first detector is larger than a light receiving area of the second detector.
A die comprising: a substrate (502, 902); at least one metal layer and at least one dielectric layer (504, 904); a component (506, 906); a first shielding means (510, 912) configured to provide shielding of the component from a top magnetic field traversing a top portion of the die, wherein the first shielding means comprises a first ferromagnetic layer positioned above the component; and a second shielding means (512, 914) configured to provide shielding of the component from a bottom magnetic field traversing a bottom portion of the die, wherein the second shielding means comprises a layer positioned below the component; the die further comprises a third shielding means (508, 910) configured to provide shielding of the component from a side magnetic field traversing a side portion of the die, wherein the third shielding means comprises a plurality of through substrate vias which traverse the at least one metal layer, the at least one dielectric layer and the substrate, and are positioned around the component, the through substrate vias comprising a ferromagnetic material; characterized in that the layer of the second shielding means is composed of a second ferromagnetic material. a substrate (502, 902); at least one metal layer and at least one dielectric layer (504, 904); a component (506, 906); a first shielding means (510, 912) configured to provide shielding of the component from a top magnetic field traversing a top portion of the die, wherein the first shielding means comprises a first ferromagnetic layer positioned above the component; and a second shielding means (512, 914) configured to provide shielding of the component from a bottom magnetic field traversing a bottom portion of the die, wherein the second shielding means comprises a layer positioned below the component; the die further comprises a third shielding means (508, 910) configured to provide shielding of the component from a side magnetic field traversing a side portion of the die, wherein the third shielding means comprises a plurality of through substrate vias which traverse the at least one metal layer, the at least one dielectric layer and the substrate, and are positioned around the component, the through substrate vias comprising a ferromagnetic material; characterized in that the layer of the second shielding means is composed of a second ferromagnetic material.
A data transmission and receiving method of a terminal (12, 200) in a distributed antenna system, comprising the steps of: receiving (S400, S910) information on antenna nodes (100-1 - 100-6) within a cell from a base station (11, 100); receiving (S400, S920) a parameter indicating a feedback method of the terminal (12, 200) from the base station (11, 100); receiving channel measurement signals from each antenna node (100-1- 100-6); measuring the channel measurement signals; transmitting (S430, S930, S950) feedback information to the base station (11, 100); receiving (S940, S960) antenna allocation information determined on the basis of the feedback information from the base station (11, 100); and receiving data from the base station (11, 100) through an antenna indicated by the antenna allocation information, wherein the antenna node (100-1 - 100-6) includes at least one antenna, wherein if the parameter indicates a first feedback method, the terminal (12, 200) transmits (S430, S930, S950) one preferred antenna node index as the feedback information, and wherein if the parameter indicates a second feedback method, the terminal (12, 200) transmits (S430, S930, S950) non-preferred antenna node indexes as the feedback information. receiving (S400, S910) information on antenna nodes (100-1 - 100-6) within a cell from a base station (11, 100); receiving (S400, S920) a parameter indicating a feedback method of the terminal (12, 200) from the base station (11, 100); receiving channel measurement signals from each antenna node (100-1- 100-6); measuring the channel measurement signals; transmitting (S430, S930, S950) feedback information to the base station (11, 100); receiving (S940, S960) antenna allocation information determined on the basis of the feedback information from the base station (11, 100); and receiving data from the base station (11, 100) through an antenna indicated by the antenna allocation information, wherein the antenna node (100-1 - 100-6) includes at least one antenna, wherein if the parameter indicates a first feedback method, the terminal (12, 200) transmits (S430, S930, S950) one preferred antenna node index as the feedback information, and wherein if the parameter indicates a second feedback method, the terminal (12, 200) transmits (S430, S930, S950) non-preferred antenna node indexes as the feedback information.
A hydroxypropyl methyl cellulose acetate phthalate wherein the degree of substitution of phthalyl groups is from 0.02 to 0.25, the degree of neutralization of phthalyl groups is not more than 0.5, wherein the degree of neutralization = [-C -C 6 H 4 -COO -] / [-C -C 6 H 4 -COO - + -C -C 6 H 4 -COOH], and the degree of substitution of acetyl groups is from 0.07 to 0.25.