mhurhangee/ep-ind-claims huggingface dataset:
A tire comprising: a pair of beads; a carcass extending on and between the pair of beads; a pair of protective rubber layers each located axially outward of the carcass and including a sidewall and a clinch and forming a side surface of the tire; and a pair of reinforcing rubber layers each located axially outward of the bead, wherein the carcass includes a carcass ply including a carcass cord, the carcass ply includes a ply body extending between the pair of beads, and a pair of turned-up portions each connected to the ply body and turned up around the bead, each of the reinforcing rubber layers is located between the turned-up portion and the protective rubber layer, each of the beads includes a core and an apex located radially outward of the core, and an outer end of the apex is located between an outer end and an inner end of the reinforcing rubber layer in a radial direction, characterized in that a thickness of the protective rubber layer in a zone from a rim contact end to the outer end of the reinforcing rubber layer is small at a center portion in the radial direction of the reinforcing rubber layer and is large at another portion, wherein the thickness of the protective rubber layer is measured along a normal line that is normal to the side surface. a pair of beads; a carcass extending on and between the pair of beads; a pair of protective rubber layers each located axially outward of the carcass and including a sidewall and a clinch and forming a side surface of the tire; and a pair of reinforcing rubber layers each located axially outward of the bead, wherein the carcass includes a carcass ply including a carcass cord, the carcass ply includes a ply body extending between the pair of beads, and a pair of turned-up portions each connected to the ply body and turned up around the bead, each of the reinforcing rubber layers is located between the turned-up portion and the protective rubber layer, each of the beads includes a core and an apex located radially outward of the core, and an outer end of the apex is located between an outer end and an inner end of the reinforcing rubber layer in a radial direction, characterized in that a thickness of the protective rubber layer in a zone from a rim contact end to the outer end of the reinforcing rubber layer is small at a center portion in the radial direction of the reinforcing rubber layer and is large at another portion, wherein the thickness of the protective rubber layer is measured along a normal line that is normal to the side surface.
A three cylinder engine comprising: a crankshaft rotatably mounted; at least two engine mounts (10A,10B) supporting the three cylinder engine on a vehicle body through the at least two engine mounts (10A,10B) that are arranged at both opposite ends of the three cylinder engine in a direction that corresponds to a direction of the crankshaft axis of the crankshaft; and a vibration alleviation unit (Wb1,Wb2,Wb3) disposed on at least one of the crankshaft and a part that operates in unison with the crankshaft, a first of the at least two engine mounts (10A,10B) being set with a spring constant K V in a crankshaft axis pitch direction, and a spring constant K H in a crankshaft axis yaw direction such that an inequality of KV > KH is established, the vibration alleviation unit (Wb1,Wb2,Wb3) being set with respect to the at least one of the crankshaft and the part such that the vibration alleviation unit satisfies an equation of 0 < M V /M V0 < 0.5, wherein M V represents a primary couple component of a primary couple produced by the three cylinder engine in the crankshaft axis pitch direction, M H represents a primary couple component of the primary couple produced by the three cylinder engine in the crankshaft axis yaw direction, and M V0 represents a sum of the primary couple components M V and M H. a crankshaft rotatably mounted; at least two engine mounts (10A,10B) supporting the three cylinder engine on a vehicle body through the at least two engine mounts (10A,10B) that are arranged at both opposite ends of the three cylinder engine in a direction that corresponds to a direction of the crankshaft axis of the crankshaft; and a vibration alleviation unit (Wb1,Wb2,Wb3) disposed on at least one of the crankshaft and a part that operates in unison with the crankshaft, a first of the at least two engine mounts (10A,10B) being set with a spring constant K V in a crankshaft axis pitch direction, and a spring constant K H in a crankshaft axis yaw direction such that an inequality of KV > KH is established, the vibration alleviation unit (Wb1,Wb2,Wb3) being set with respect to the at least one of the crankshaft and the part such that the vibration alleviation unit satisfies an equation of 0 < M V /M V0 < 0.5, wherein M V represents a primary couple component of a primary couple produced by the three cylinder engine in the crankshaft axis pitch direction, M H represents a primary couple component of the primary couple produced by the three cylinder engine in the crankshaft axis yaw direction, and M V0 represents a sum of the primary couple components M V and M H.
A vehicle including a front glass constituted by a vehicle window plate and a HUD unit including a concave mirror, a curvature of the vehicle window plate increases monotonically from a lower side to an upper side at least within the HUD display area; both the curvature of the concave mirror and a curvature of the front glass have variations, respectively; characterized in that: a maximum value of the variation of the curvature of the vehicle window plate in a vertical direction is ±7.6E-6 mm -2 or less at least within a HUD display area, and the variation of the curvature of the concave mirror is 1.5 to 3 times as large as the variation of curvature of the front glass.
Orthopedic prosthesis component (1, 1'), for example an acetabular or glenoidal cup of an orthopedic prosthesis, or a liner constrained inside the cup, and intended to receive a spherical joint (4, 5) of an artificial femoral or humeral head, said component being substantially hemispherical-shaped with a base defining the lower edge of the component, characterized in that it comprises a lip projecting beyond the base and beyond the equatorial line of the hemispherical form, partially occupying the missing hemisphere of the hemispherical form so as to define an undercut edge, as well as an extended portion of said lip by at least one tract of said base in order to receive and hold a dual-mobility head in the spherical segment inside the component (1, 1').
A cured cementitious structure comprising cementitious material wherein the cementitious material is cement, and fibrillated nano or micro carboxyalkyl cellulose, fibrillated nano or micro cellulose alkylsulfonic acid, fibrillated nano or micro phosphorylated cellulose or fibrillated nano or micro sulfated cellulose each having a degree of substitution of 0.01 to 0.45 and a carboxyalkyl, alkylsulfonic acid, phosphate or sulfate content of 10 to 150 meq/100 g of, respectively, carboxyalkyl cellulose, cellulose alkylsulfonic acid, phosphorylated cellulose or sulfated cellulose, and the carboxyalkyl cellulose, cellulose alkylsulfonic acid, phosphorylated cellulose or sulfated cellulose are 0.1 to 5% by weight of the dry weight of the cementitious material.
A compound, which is a diazabicyclooctane derivative of the formula or a pharmaceutically acceptable salt or a solvate thereof: wherein A is -N(R a)(R b) or -OR c, wherein R a and R b each independently is C 1-6 -alkyl or acyl; and R c is C 1-6 -alkyl or heterocyclyl; A may be substituted by up to 4 substituents F n1 selected from C 1-6 -alkyl, =O and -(CH 2) n -R g, wherein n is 0-3 and R g is heterocyclyl; phenyl; heteroaryl, acyl, R d O 2 S-; R e (R f)N-, R e (R f)NCO-, -OR e, -OCOR e or a protective group selected from trialkylsilyl and carbamate type protective groups, wherein R d is C 1-6 -alkyl or -OM, and R e, R f each independently is H or C 1-6 -alkyl, and F n1 may be further substituted; B is -NH or -N(C 1-6 -alkyl); C is H, benzyl, or -SO 3 M, where M represents H, an inorganic cation or an organic cation; and further, R a and R b, R c and B, and R e and R f may be bonded together to form a heterocyclyl having at least one nitrogen atom. A is -N(R a)(R b) or -OR c, wherein R a and R b each independently is C 1-6 -alkyl or acyl; and R c is C 1-6 -alkyl or heterocyclyl; A may be substituted by up to 4 substituents F n1 selected from C 1-6 -alkyl, =O and -(CH 2) n -R g, wherein n is 0-3 and R g is heterocyclyl; phenyl; heteroaryl, acyl, R d O 2 S-; R e (R f)N-, R e (R f)NCO-, -OR e, -OCOR e or a protective group selected from trialkylsilyl and carbamate type protective groups, wherein R d is C 1-6 -alkyl or -OM, and R e, R f each independently is H or C 1-6 -alkyl, and F n1 may be further substituted; n is 0-3 and R g is heterocyclyl; phenyl; heteroaryl, acyl, R d O 2 S-; R e (R f)N-, R e (R f)NCO-, -OR e, -OCOR e or a protective group selected from trialkylsilyl and carbamate type protective groups, wherein R d is C 1-6 -alkyl or -OM, and R e, R f each independently is H or C 1-6 -alkyl, and F n1 may be further substituted; R d is C 1-6 -alkyl or -OM, and R e, R f each independently is H or C 1-6 -alkyl, B is -NH or -N(C 1-6 -alkyl); C is H, benzyl, or -SO 3 M, where M represents H, an inorganic cation or an organic cation;
A method for transferring a call, the method comprising: detecting proximity of an audio appliance during a voice call on a mobile device; determining that the audio appliance is permitted to carry an audio portion of the voice call; establishing a bi-directional communication link operable to transfer audio data between the mobile device and the audio appliance; and routing the audio data for the voice call between the mobile device and the audio appliance by the bi-directional communication link, wherein the proximity is detected by a Near Field Communication, NFC, interface of the mobile device, and the audio data is routed by a Blueooth interface of the mobile device. detecting proximity of an audio appliance during a voice call on a mobile device; determining that the audio appliance is permitted to carry an audio portion of the voice call; establishing a bi-directional communication link operable to transfer audio data between the mobile device and the audio appliance; and routing the audio data for the voice call between the mobile device and the audio appliance by the bi-directional communication link, wherein the proximity is detected by a Near Field Communication, NFC, interface of the mobile device, and the audio data is routed by a Blueooth interface of the mobile device.
A method for initiating a connection between a first device and a second device, the method characterised by: providing, by the first device, a power supply signal having a first characteristic; receiving, at the second device, the power supply signal having the first characteristic; detecting, by the second device, that the received power supply signal having the first characteristic has been received for at least a pre-determined amount of time; after detecting that the received power supply signal having the first characteristic has been received for the pre-determined amount of time, providing, by the second device, current pulses to the power supply signal; and after detecting the current pulses at the first device, providing, by the first device and to the second device, a power supply signal having a second characteristic while the current pulses are provided to the power supply signal by the second device. providing, by the first device, a power supply signal having a first characteristic; receiving, at the second device, the power supply signal having the first characteristic; detecting, by the second device, that the received power supply signal having the first characteristic has been received for at least a pre-determined amount of time; after detecting that the received power supply signal having the first characteristic has been received for the pre-determined amount of time, providing, by the second device, current pulses to the power supply signal; and after detecting the current pulses at the first device, providing, by the first device and to the second device, a power supply signal having a second characteristic while the current pulses are provided to the power supply signal by the second device.
A method for determining a weighting factor used for calculating a distance representative of spectral distortion between an original line spectral frequency parameter and a target line spectral frequency parameter of a to-be-encoded signal in a stereo audio signal during quantization or prediction of a line spectral frequency parameter in stereo audio signal encoding, comprising: determining a parameter value, which is a number greater than 0 and less than 1, based on an encoding mode of the to-be-encoded signal in the stereo audio signal and a preset correspondence between the encoding mode and the parameter value, wherein the encoding mode comprises at least one of the following encoding modes: an encoding rate, an encoding bandwidth, a channel number, or a manner of obtaining the target line spectral frequency parameter of the to-be-encoded signal, wherein the manner of obtaining the target line spectral frequency parameter of the to-be-encoded signal comprises at least one of: obtaining the target line spectral frequency parameter of the to-be-encoded signal by quantizing the original line spectral frequency parameter of the to-be-encoded signal, or obtaining the target line spectral frequency parameter of the to-be-encoded signal through prediction; and determining the weighting factor through calculation, based on the parameter value and an energy spectrum of a linear prediction filter that is corresponding to the original line spectral frequency parameter of the to-be-encoded signal, wherein the weighting factor is obtained by calculating the energy spectrum of the linear prediction filter to the power of the parameter value. an encoding rate, an encoding bandwidth, a channel number, or a manner of obtaining the target line spectral frequency parameter of the to-be-encoded signal, wherein the manner of obtaining the target line spectral frequency parameter of the to-be-encoded signal comprises at least one of: obtaining the target line spectral frequency parameter of the to-be-encoded signal by quantizing the original line spectral frequency parameter of the to-be-encoded signal, or obtaining the target line spectral frequency parameter of the to-be-encoded signal through prediction; and obtaining the target line spectral frequency parameter of the to-be-encoded signal by quantizing the original line spectral frequency parameter of the to-be-encoded signal, or obtaining the target line spectral frequency parameter of the to-be-encoded signal through prediction; and determining the weighting factor through calculation, based on the parameter value and an energy spectrum of a linear prediction filter that is corresponding to the original line spectral frequency parameter of the to-be-encoded signal, wherein the weighting factor is obtained by calculating the energy spectrum of the linear prediction filter to the power of the parameter value.
Measurement equipment for measuring the inflation pressure of a tire of a vehicle wheel, the equipment comprising: · a body defining an internal volume; · a communication orifice for putting the inside volume of the body into communication with an inflation chamber situated between a rim and a tire of the wheel and containing an inflation gas; · an indicator member (25; 125; 325) slidably mounted in the body so as to define a gastight separation between a first chamber containing a given quantity of a reference gas and a second chamber into which the communication orifice leads, such that the indicator member (25; 125; 325) is subjected to opposing pressures that exist in each of the chambers, said opposing pressures being exerted by the reference gas and by the inflation gas; and · position-identification means (30; 143; 243, 244; 345; 451) for identifying the position of the indicator member in the body, the position-identification means including a sensor for sensing the position of the indicator member, characterized in that the indicator member (25; 125; 325) is secured to a bellows (23; 123; 323; 423) incorporated in the first chamber. · a body defining an internal volume; · a communication orifice for putting the inside volume of the body into communication with an inflation chamber situated between a rim and a tire of the wheel and containing an inflation gas; · an indicator member (25; 125; 325) slidably mounted in the body so as to define a gastight separation between a first chamber containing a given quantity of a reference gas and a second chamber into which the communication orifice leads, such that the indicator member (25; 125; 325) is subjected to opposing pressures that exist in each of the chambers, said opposing pressures being exerted by the reference gas and by the inflation gas; and · position-identification means (30; 143; 243, 244; 345; 451) for identifying the position of the indicator member in the body, the position-identification means including a sensor for sensing the position of the indicator member, characterized in that the indicator member (25; 125; 325) is secured to a bellows (23; 123; 323; 423) incorporated in the first chamber.
An integrated circuit comprising: a substrate; and an optical CO 2 sensor comprising: first and second light sensors (12, 12') on said substrate, said second light sensor being spatially separated from the first light sensor; and a layer portion including an organic compound comprising at least one amine or amidine functional group for reacting with CO 2 over the first light sensor; wherein said integrated circuit further comprises a signal processor coupled to the first and second light sensor configured to determine a difference in the respective outputs of the first and second light sensor. a substrate; and an optical CO 2 sensor comprising: first and second light sensors (12, 12') on said substrate, said second light sensor being spatially separated from the first light sensor; and a layer portion including an organic compound comprising at least one amine or amidine functional group for reacting with CO 2 over the first light sensor; first and second light sensors (12, 12') on said substrate, said second light sensor being spatially separated from the first light sensor; and a layer portion including an organic compound comprising at least one amine or amidine functional group for reacting with CO 2 over the first light sensor;
A sliding member in an annular shape used for a mechanical seal that suppresses leakage of a fluid to be sealed from between a housing and a rotating shaft penetrating the housing, mounted on one of the housing and the rotating shaft, and freely slidingly coming into contact with another sliding member in the annular shape mounted on the other of the housing and the rotating shaft after receiving an energizing force in an axial direction, wherein on a sliding surface with the other sliding member, a dynamic pressure generating groove that guides the fluid to be sealed from a region to be sealed to a side of a region to not be sealed of the sliding surface and also generates dynamic pressure resisting the energizing force by relative flow of the fluid to be sealed caused by rotation of the rotating shaft, and characterised by: a concave-convex section that is a groove shallower than the dynamic pressure generating groove and is constituted of a plurality of minute grooves extending in a direction inclined with respect to a sliding direction such that the fluid to be sealed is guided from the side of the region to be sealed to the side of the region to not be sealed of the sliding surface are formed, and the concave-convex section reaches an edge of the sliding surface on the side of the region to be sealed so that the minute grooves open to the region to be sealed, and spreads just before an edge of the sliding surface on the side of the region to not be sealed. a concave-convex section that is a groove shallower than the dynamic pressure generating groove and is constituted of a plurality of minute grooves extending in a direction inclined with respect to a sliding direction such that the fluid to be sealed is guided from the side of the region to be sealed to the side of the region to not be sealed of the sliding surface are formed, and the concave-convex section reaches an edge of the sliding surface on the side of the region to be sealed so that the minute grooves open to the region to be sealed, and spreads just before an edge of the sliding surface on the side of the region to not be sealed.
An electronic device comprising: a first power extraction unit configured to extract a first amount of power from an RF field present on an RF antenna and to provide said first amount of power to one or more circuits of the electronic device; a second power extraction unit configured to extract a second amount of power from the RF field and to provide said second amount of power to an output of the electronic device; characterized by a control unit configured to control the second amount of power provided to said output, wherein the control unit is configured to control the second amount of power provided to the output in dependence on the strength of the RF field by making the second amount of power provided to the output proportional to the strength of the RF field. a first power extraction unit configured to extract a first amount of power from an RF field present on an RF antenna and to provide said first amount of power to one or more circuits of the electronic device; a second power extraction unit configured to extract a second amount of power from the RF field and to provide said second amount of power to an output of the electronic device; characterized by a control unit configured to control the second amount of power provided to said output, wherein the control unit is configured to control the second amount of power provided to the output in dependence on the strength of the RF field by making the second amount of power provided to the output proportional to the strength of the RF field.