mhurhangee/ep-ind-claims huggingface dataset:
A mobile device comprising: a transceiver; and a controller operatively coupled to the transceiver, wherein the controller is configured to: detect a first signal transmitted from a first beacon device and a second signal transmitted from a second beacon device, wherein the first beacon device is installed on a first side of a wall and the second beacon device is installed on a second side of the wall opposite to the first side of the wall, such that the first beacon device and the second beacon device are installed back-to-back on each side of the wall; identify an identification value associated with each of the first beacon device and the second beacon device based on the first signal and the second signal; compare a strength of the first signal and a strength of the second signal; determine a beacon device among the first beacon device and the second beacon device based on a result of the comparison and the identification values; and determine a side of the wall corresponding to a location of the mobile device based on the determined beacon device. a transceiver; and a controller operatively coupled to the transceiver, wherein the controller is configured to: detect a first signal transmitted from a first beacon device and a second signal transmitted from a second beacon device, wherein the first beacon device is installed on a first side of a wall and the second beacon device is installed on a second side of the wall opposite to the first side of the wall, such that the first beacon device and the second beacon device are installed back-to-back on each side of the wall; identify an identification value associated with each of the first beacon device and the second beacon device based on the first signal and the second signal; compare a strength of the first signal and a strength of the second signal; determine a beacon device among the first beacon device and the second beacon device based on a result of the comparison and the identification values; and determine a side of the wall corresponding to a location of the mobile device based on the determined beacon device. detect a first signal transmitted from a first beacon device and a second signal transmitted from a second beacon device, wherein the first beacon device is installed on a first side of a wall and the second beacon device is installed on a second side of the wall opposite to the first side of the wall, such that the first beacon device and the second beacon device are installed back-to-back on each side of the wall; identify an identification value associated with each of the first beacon device and the second beacon device based on the first signal and the second signal; compare a strength of the first signal and a strength of the second signal; determine a beacon device among the first beacon device and the second beacon device based on a result of the comparison and the identification values; and determine a side of the wall corresponding to a location of the mobile device based on the determined beacon device.
A transmission method for transmitting transmission streams comprising: performing a signal processing to convert a first bit stream and a second bit stream into a first transmission stream including first transmission signal points z1(t) and a second transmission stream including second transmission signal points z2(t), where t is index of a signal point, the signal processing including: mapping the first bit stream into first complex signal points s1(t) using a first modulation scheme; mapping the second bit stream into second complex signal points s2(t) using a second modulation scheme; converting two complex signal points s1 and s2 to two transmission signal points z1 and z2, respectively, by multiplication with a precoding matrix F and a phase change matrix Y(t); and transmitting the first transmission stream and the second transmission stream by using antennas (312A, 312B); wherein the phase change matrix Y(t) is defined as Y t = 1 0 0 y t, wherein y(t) is a phase changing formula, wherein the following 8 candidate values are provided for 8 of consecutive y(t) e j 0, e j π 4, e j 1 π 2, e j 3 π 4, e jπ, e j 5 π 4, e j 3 π 2, e j 7 π 4, and wherein each of 8 candidate values is periodically used for y(t). mapping the first bit stream into first complex signal points s1(t) using a first modulation scheme; mapping the second bit stream into second complex signal points s2(t) using a second modulation scheme; converting two complex signal points s1 and s2 to two transmission signal points z1 and z2, respectively, by multiplication with a precoding matrix F and a phase change matrix Y(t); and transmitting the first transmission stream and the second transmission stream by using antennas (312A, 312B); wherein the phase change matrix Y(t) is defined as Y t = 1 0 0 y t, wherein y(t) is a phase changing formula, wherein the following 8 candidate values are provided for 8 of consecutive y(t) e j 0, e j π 4, e j 1 π 2, e j 3 π 4, e jπ, e j 5 π 4, e j 3 π 2, e j 7 π 4, and wherein each of 8 candidate values is periodically used for y(t).
A damper for connecting an elevator car and a fall arrest device, the damper comprising: a deformable element having: a first joining portion configured to connect to the elevator car; a second joining portion configured to connect to the fall arrest device; characterized in that the deformable element is configured to plastically deform from an undeformed state to a deformed state in the event of a force above a predetermined threshold force in such a way that the elevator car and the fall arrest device are relatively displaced when the deformable element is deformed. a deformable element having: a first joining portion configured to connect to the elevator car; a second joining portion configured to connect to the fall arrest device; characterized in that a first joining portion configured to connect to the elevator car; a second joining portion configured to connect to the fall arrest device; characterized in that the deformable element is configured to plastically deform from an undeformed state to a deformed state in the event of a force above a predetermined threshold force in such a way that the elevator car and the fall arrest device are relatively displaced when the deformable element is deformed.
Curvature correction assembly for elongated metal elements, in particular metal profiles and rods, comprising a first correction wheel (11, 110) and a second correction wheel (12, 120) opposed to a feeding line of a metal element, rotatable respectively around a first axis of rotation and a second axis of rotation, and a drive assembly configured such that in operation it drives said first correction wheel (11, 110) and said second correction wheel (12, 120) according to a correction motion in a correction direction respectively along said first rotation axis and said second rotation axis, and therefore correcting the curvature of said metal element on a corresponding plane, orthogonal to the lying plane of said first correction wheel (11, 110) and said second correction wheel (12, 120), said first correction wheel (11, 110) and said second correction wheel (12, 120) being movable according to a relative tightening motion, alternately between a release condition, wherein said first correction wheel (11, 110) and said second correction wheel (12, 120) are moved away so as to be apart from said element, and a tightening condition, mutually pulled together to tighten said element, the curvature correction assembly being characterized in that the first correction wheel (11, 110) and the second correction wheel (12, 120) are rotatable respectively around the first axis of rotation and the second axis of rotation lying on a same plane orthogonal to said feeding line. and a second correction wheel (12, 120) opposed to a feeding line of a metal element, rotatable respectively around a first axis of rotation and a second axis of rotation, and a drive assembly configured such that in operation it drives said first correction wheel (11, 110) and said second correction wheel (12, 120) according to a correction motion in a correction direction respectively along said first rotation axis and said second rotation axis, and therefore correcting the curvature of said metal element on a corresponding plane, orthogonal to the lying plane of said first correction wheel (11, 110) and said second correction wheel (12, 120), said first correction wheel (11, 110) and said second correction wheel (12, 120) being movable according to a relative tightening motion, alternately between a release condition, wherein said first correction wheel (11, 110) and said second correction wheel (12, 120) are moved away so as to be apart from said element, and a tightening condition, mutually pulled together to tighten said element, the curvature correction assembly being characterized in that the first correction wheel (11, 110) and the second correction wheel (12, 120) are rotatable respectively around the first axis of rotation and the second axis of rotation lying on a same plane orthogonal to said feeding line.
A complementary metal-oxide-semiconductor, CMOS, backside illuminated imaging sensor, comprising: a semiconductor layer (205, 305) having a P-type region; a frontside P + doped layer (215, 315) formed within the semiconductor layer; a backside P + doped layer (220, 355) formed within the semiconductor layer; an imaging pixel (200, 300) having a photodiode formed within the semiconductor layer, wherein the photodiode is an N - region formed within the P-type region of the semiconductor layer between the frontside P + doped layer and the backside P + layer; wherein the backside P + doped layer has a first ion concentration at a back surface (209, 309) of the semiconductor layer and has a second ion concentration at a distance from the back surface of the semiconductor layer, wherein the first ion concentration is greater than the second ion concentration, characterised in that the backside P + doped layer includes a region in which there is an increase in ion concentration as depth increases as measured from the back surface of the semiconductor layer. a semiconductor layer (205, 305) having a P-type region; a frontside P + doped layer (215, 315) formed within the semiconductor layer; a backside P + doped layer (220, 355) formed within the semiconductor layer; an imaging pixel (200, 300) having a photodiode formed within the semiconductor layer, wherein the photodiode is an N - region formed within the P-type region of the semiconductor layer between the frontside P + doped layer and the backside P + layer; wherein the backside P + doped layer has a first ion concentration at a back surface (209, 309) of the semiconductor layer and has a second ion concentration at a distance from the back surface of the semiconductor layer, wherein the first ion concentration is greater than the second ion concentration, characterised in that the backside P + doped layer includes a region in which there is an increase in ion concentration as depth increases as measured from the back surface of the semiconductor layer.
A mobile communication system, comprising a source serving general packet radio service support node, SGSN and a target mobile management entity, MME, wherein, the source SGSN is configured to send a relocation required message carrying a user type indication to the target MME, when a User Equipment, UE, needs to perform network handover to an evolved Universal Mobile Telecommunication System Terrestrial Radio Access Network, eUTRAN, wherein the user type indication is obtained by the source SGSN according to an authentication vector that carries the user type indication from a home location register, HLR, or a home subscriber server, HSS; the target MME is configured to judge, according to the received user type indication, whether the UE adopts a subscriber identity module, SIM, technology for network access, and prohibit the UE from accessing the eUTRAN before the network handover is complete if the UE adopts the SIM technology for access.
A tape cartridge that comprises a first tape roll that winds a tape in a manner that enables feed-out, and is configured to be mounted to a printer wherein a print mechanism configured to perform print on said tape is provided movably along a tape-width direction of said tape with respect to an opening/closing cover (8a, 8b) capable of opening and closing at least an area above a part of an apparatus housing, the tape cartridge comprising: a positioning contacting part configured to separate from a contacted part provided on said print mechanism with said opening/closing cover (8a, 8b) open, and to contact said contacted part of said print mechanism with said opening/closing cover (8a, 8b) closed, characterized in that said positioning contacting part is configured to position said print mechanism in said tape-width direction with said opening/closing cover (8a, 8b) closed. a positioning contacting part configured to separate from a contacted part provided on said print mechanism with said opening/closing cover (8a, 8b) open, and to contact said contacted part of said print mechanism with said opening/closing cover (8a, 8b) closed,
A silencer device for a flue pipe equipping a boiler, wherein said device (1, 1', 1") includes a central tube provided with an upstream extension suitable for being connected to an upstream flue pipe section (2 a), and with a downstream extension suitable for being connected to a downstream flue pipe section (2 b), wherein said central tube includes perforations and is surrounded by an outer tube to define between each other an acoustic absorption chamber, wherein said outer tube is connected to said central tube by an upstream end wall and by a downstream end wall that delimit the length of said acoustic absorption chamber, the latter being at least partially filled with an acoustic absorptive material, wherein said central tube includes an upstream section provided with perforations, which extends from said upstream end wall or approximately from said upstream end wall, up to an intermediate area between said upstream and downstream end walls, wherein said upstream section (5 a) provided with perforations is extended by a solid downstream section (5 b), devoid or almost devoid of perforations, extending from said intermediate area to said downstream end wall, wherein said acoustic absorptive material fills the thickness of the acoustic absorption chamber, between the central tube and the outer tube, and wherein said acoustic absorptive material is delimited by an upstream end edge (14 c), arranged in said acoustic absorption chamber near said upstream end wall, or in rest against the latter, characterized in that said acoustic absorptive material is also delimited by a downstream end edge (14 d), arranged upstream from said intermediate area, the space (11 b) of said acoustic absorption chamber between said downstream end edge (14 d) of said acoustic absorptive material and said downstream end wall, consisting of a cavity, an upstream portion (11 b') of which surrounds a perforated downstream portion (5 a") of said central tube, and a downstream portion (11 b") of which surrounds a non-perforated downstream portion (5 b) of said central tube.
A communication method in a communication system, wherein the communication system comprises a User Equipment, UE, a Core Network and an IP Multimedia Subsystem, IMS, the method comprising: initiating, from the UE, a registration towards the IMS via the Core Network, wherein, during the registration, a capability to support a P-CSCF urgency functionality is signaled by the UE; engaging in a communication between the UE and the IMS; signaling, from the Core Network to the UE, in case of a P-CSCF failure or maintenance, a P-CSCF address in a bearer modification message, wherein the bearer modification message includes a P-CSCF urgency indication; receiving (S14.a, S14.b), at the UE, the P-CSCF address and the P-CSCF urgency indication, wherein if the P-CSCF urgency indication indicates the highest possible urgency (S14.a), directly initiating, by the UE, a new IMS registration based on the received P-CSCF address and interrupting the communication, wherein if the P-CSCF urgency indication indicates lower urgency and waiting time X (S14.b), waiting, at the UE, X time for the communication to end and initiating a new IMS registration to the P-CSCF address and interrupting the communication if the communication is still ongoing. initiating, from the UE, a registration towards the IMS via the Core Network, wherein, during the registration, a capability to support a P-CSCF urgency functionality is signaled by the UE; engaging in a communication between the UE and the IMS; signaling, from the Core Network to the UE, in case of a P-CSCF failure or maintenance, a P-CSCF address in a bearer modification message, wherein the bearer modification message includes a P-CSCF urgency indication; receiving (S14.a, S14.b), at the UE, the P-CSCF address and the P-CSCF urgency indication, wherein if the P-CSCF urgency indication indicates the highest possible urgency (S14.a), directly initiating, by the UE, a new IMS registration based on the received P-CSCF address and interrupting the communication, wherein if the P-CSCF urgency indication indicates lower urgency and waiting time X (S14.b), waiting, at the UE, X time for the communication to end and initiating a new IMS registration to the P-CSCF address and interrupting the communication if the communication is still ongoing.
System for controlling the release of an automatic parking brake device, on board an automobile, comprising emission means adapted to emit said command to release the parking brake device a predetermined number of times, when the torque transmitted to the drive wheels of the vehicle compensates the effects induced by the slope, two successive emissions being separated by a predetermined interval, characterized in that it comprises interface means, positioned between said emission means and said parking brake device, to receive said emissions of the release command and transmit a command to release said parking brake device for all the successive emissions of the release command from the emission module.
A computer-implemented method for obtaining signals to analyse the state of a structure, the method comprising the steps of: - positioning, in or on a structure to be analysed, a plurality of sensors of fibre Bragg grating FBG-type, the FBG sensors being borne by at least one optical fibre; - measuring a diffuse elastic field propagating through the structure by interrogating at least some of the FBG sensors, each interrogated FBG sensor being a measurement point; and - determining, by a passive inverse filter, functions representative of the impulse response of the structure for pairs of interrogated FBG sensors, each function representative of the impulse response of the structure being a signal for analysing the state of the structure. - positioning, in or on a structure to be analysed, a plurality of sensors of fibre Bragg grating FBG-type, the FBG sensors being borne by at least one optical fibre; - measuring a diffuse elastic field propagating through the structure by interrogating at least some of the FBG sensors, each interrogated FBG sensor being a measurement point; and - determining, by a passive inverse filter, functions representative of the impulse response of the structure for pairs of interrogated FBG sensors, each function representative of the impulse response of the structure being a signal for analysing the state of the structure.
A composition comprising two or more compounds of the general formula, wherein R is unsubstituted branched C 13 -alkyl and has an average number of branching in the range from 0.9 to 3.5, G 1 is selected from monosaccharides with 5 or 6 carbon atoms; x is in the range of from 1 to 10 and refers to average values, and wherein the two or more compounds differ in R and/or G 1 and/or x.
A dialysis system configured for use in a method for regenerating a dialysis fluid, the system comprising: an anode that comprises a plurality of nanostructures; and an air permeable cathode that blocks liquids but passes gases through; and the method comprising: flowing the dialysis fluid between the anode and the cathode; illuminating the anode with a source of light; flowing oxygen through the cathode toward the dialysis fluid; and converting urea in the dialysis fluid into CO 2, N 2 and H 2 O thereby regenerating the dialysis fluid. an anode that comprises a plurality of nanostructures; and an air permeable cathode that blocks liquids but passes gases through; and the method comprising: flowing the dialysis fluid between the anode and the cathode; illuminating the anode with a source of light; flowing oxygen through the cathode toward the dialysis fluid; and flowing the dialysis fluid between the anode and the cathode; illuminating the anode with a source of light; flowing oxygen through the cathode toward the dialysis fluid; and converting urea in the dialysis fluid into CO 2, N 2 and H 2 O thereby regenerating the dialysis fluid.
A process for the extrusion of ceramic masses or other masses which set as a result of baking or sintering, which comprises mixing a ceramic mass comprised of clay which sets as a result of baking or sintering, and which comprises at least one component which can be baked or sintered by baking or sintering alone or with addition of other sintering aids, selected from:- alumina; aluminum nitride and aluminum carbide; cordierite; mullite; silicon carbide; silicon boride; silicon nitride; titanium dioxide; titanium carbide; boron carbide; boron oxide; silicates and sheet silicates such as talc; silicon metal; carbon as carbon black or graphite; ground glass; other metal oxides such as rare earth oxides; zeolites and other oxides that form cordierite or mullite when mixed with clay: with at least one cellulose ether, at least one plasticizer, at least one defoamer as individual components or as premixed additive, and water having a pH of at least 9 and subsequently extruding it; and wherein the term clay as used herein means a hydrated aluminum silicate having a platy structure which forms plastic masses when mixed with water. alumina; aluminum nitride and aluminum carbide; cordierite; mullite; silicon carbide; silicon boride; silicon nitride; titanium dioxide; titanium carbide; boron carbide; boron oxide; silicates and sheet silicates such as talc; silicon metal; carbon as carbon black or graphite; ground glass; other metal oxides such as rare earth oxides; zeolites and other oxides that form cordierite or mullite when mixed with clay: with at least one cellulose ether, at least one plasticizer, at least one defoamer as individual components or as premixed additive, and water having a pH of at least 9 and subsequently extruding it; and wherein the term clay as used herein means a hydrated aluminum silicate having a platy structure which forms plastic masses when mixed with water. with at least one cellulose ether, at least one plasticizer, at least one defoamer as individual components or as premixed additive, and water having a pH of at least 9 and subsequently extruding it; and wherein the term clay as used herein means a hydrated aluminum silicate having a platy structure which forms plastic masses when mixed with water. at least one cellulose ether, at least one plasticizer, at least one defoamer as individual components or as premixed additive, and water having a pH of at least 9 and subsequently extruding it;