mhurhangee/ep-ind-claims huggingface dataset:
A method for evolved packet system, EPS, fallback when establishing a voice call while camped on a Fifth Generation New Radio, 5G NR, network, comprising: a user equipment device, UE,, camping on a first cell of the 5G NR network, including performing one or more of an Internet protocol, IP, multimedia subsystem, IMS registration procedure or an IMS session initiation protocol, SIP, invite procedure with an IMS serving the 5G NR network; determining, after attempting to initiate a voice call, that the voice call cannot be established; performing one of a tracking area update, TAU, procedure or an attachment procedure with a second cell of a Fourth Generation, 4G network co-located with and/or indicated by the 5G NR network, wherein an IMS context and an Internet packet data network, PDN, of the UE are transferred to the 4G network during one of the TAU procedure or attachment procedure; and omitting, prior to establishing the voice call over the 4G network, one or more of an IMS registration procedure or a SIP invite procedure with the IMS. camping on a first cell of the 5G NR network, including performing one or more of an Internet protocol, IP, multimedia subsystem, IMS registration procedure or an IMS session initiation protocol, SIP, invite procedure with an IMS serving the 5G NR network; determining, after attempting to initiate a voice call, that the voice call cannot be established; performing one of a tracking area update, TAU, procedure or an attachment procedure with a second cell of a Fourth Generation, 4G network co-located with and/or indicated by the 5G NR network, wherein an IMS context and an Internet packet data network, PDN, of the UE are transferred to the 4G network during one of the TAU procedure or attachment procedure; and omitting, prior to establishing the voice call over the 4G network, one or more of an IMS registration procedure or a SIP invite procedure with the IMS.
Method for configuring a digital audio filter, comprising: determining the poles of an initial transfer function of the digital audio filter in the z-domain, with the initial transfer function comprising a target function component and a compensation function component; selecting at least one subset of the poles (40, 42, 44, 46) of the transfer function that are outside the unit circle; for each of the at least one subset of the poles (40, 42, 44, 46) of the transfer function that are outside the unit circle: determining a subset-specific partial transfer function, determining a subset-specific, frequency-dependent phase response of the subset-specific partial transfer function, and determining a subset-specific phase modification component, with the subset-specific phase modification component being dependent on the subset-specific, frequency-dependent phase response of the subset-specific partial transfer function; and providing a modified transfer function, comprising the target function component, the compensation function component, and at least one subset-specific phase modification component. determining the poles of an initial transfer function of the digital audio filter in the z-domain, with the initial transfer function comprising a target function component and a compensation function component; selecting at least one subset of the poles (40, 42, 44, 46) of the transfer function that are outside the unit circle; for each of the at least one subset of the poles (40, 42, 44, 46) of the transfer function that are outside the unit circle: determining a subset-specific partial transfer function, determining a subset-specific, frequency-dependent phase response of the subset-specific partial transfer function, and determining a subset-specific phase modification component, with the subset-specific phase modification component being dependent on the subset-specific, frequency-dependent phase response of the subset-specific partial transfer function; and determining a subset-specific partial transfer function, determining a subset-specific, frequency-dependent phase response of the subset-specific partial transfer function, and determining a subset-specific phase modification component, with the subset-specific phase modification component being dependent on the subset-specific, frequency-dependent phase response of the subset-specific partial transfer function; and providing a modified transfer function, comprising the target function component, the compensation function component, and at least one subset-specific phase modification component.
Method for producing biogas from organic substances, substrate being supplied to a container by means of a feed system and there being arranged in the container at least one agitator mechanism, wherein an actual value of at least one measurement quantity is detected and transmitted to a regulating unit, and in the regulating unit there is stored a setpoint value, wherein the regulating unit calculates the deviation of the actual value from the setpoint value and, as a function of said deviation, varies manipulated quantities which vary the introduction of power by the agitator mechanism and/or the composition of the container contents and/or the flow behavior of the container contents, characterized in that as at least one measurement variable, the flow behaviour of the fermentation substrate is determined, in particular the formation of caverns in the near-propeller region, and in that an operationally specific desired value depends on the size of the container and/or on the type of agitator mechanisms and/or on the position of the agitator mechanisms in relation to one another.
A method, comprising: storing, by a service capability middleware, a representation of a subject resource, wherein the representation of the subject resource comprises content of the subject resource and information about an operation resource associated with the subject resource, wherein the service capability middleware is integrated in a gateway or a M2M service platform; detecting, by the service capability middleware, change of the content of the subject resource according to the representation of the subject resource by listening on a program of the subject resource; determining, by the service capability middleware, that the change result meets a condition for sending an operation request to an object resource; sending, by service capability middleware, the operation request to the object resource according to a uniform resource identifier of the object resource, wherein the condition and the uniform resource identifier of the object resource are retrieved according to the information about an operation resource associated with the subject resource. storing, by a service capability middleware, a representation of a subject resource, wherein the representation of the subject resource comprises content of the subject resource and information about an operation resource associated with the subject resource, wherein the service capability middleware is integrated in a gateway or a M2M service platform; detecting, by the service capability middleware, change of the content of the subject resource according to the representation of the subject resource by listening on a program of the subject resource; determining, by the service capability middleware, that the change result meets a condition for sending an operation request to an object resource; sending, by service capability middleware, the operation request to the object resource according to a uniform resource identifier of the object resource, wherein the condition and the uniform resource identifier of the object resource are retrieved according to the information about an operation resource associated with the subject resource.
An apparatus comprising: a first layer having a first coil (48, 48', 48"), where the first coil has a substantially "8" shape; a second layer having a second coil (54, 54', 54") where the first and second coils are stacked relative to each other and configured to be located at an aperture of a housing member comprising electrically conductive material; and a third layer located under the second layer, where the third layer comprises a ferrite member (66, 66', 66", 66"') located under the second coil such that the second coil is between the first coil and the ferrite member. a first layer having a first coil (48, 48', 48"), where the first coil has a substantially "8" shape; a second layer having a second coil (54, 54', 54") where the first and second coils are stacked relative to each other and configured to be located at an aperture of a housing member comprising electrically conductive material; and a third layer located under the second layer, where the third layer comprises a ferrite member (66, 66', 66", 66"') located under the second coil such that the second coil is between the first coil and the ferrite member.
A resin substrate provided with a hard coating film, comprising a resin substrate and on at least one side of the resin substrate, a primer layer, a middle layer and a hard coating layer in this order from the resin substrate side, wherein the primer layer contains an acrylic polymer as the main component, the hard coating layer contains a cured product of an organopolysiloxane as the main component, the middle layer contains the above acrylic polymer and a cured product of the above organopolysiloxane as the main components, and when the thickness of the middle layer is Mt and the thickness of the hard coating layer is Ht, the ratio in thickness of the middle layer to the hard coating layer represented by Mt/Ht is from 0.05 to 1.0.
A thermoplastic resin composition, comprising: 3 to 22 % by weight of a graft copolymer (A-1) comprising an acrylate-based rubber having an average particle diameter of 200 to 400 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 17 to 40 % by weight of a graft copolymer (A-2) comprising an acrylate-based rubber having an average particle diameter of 50 to 199 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 30 to 57 % by weight of a copolymer comprising a (meth)acrylic acid alkyl ester compound, an α-methyl styrene-based compound, and a vinyl cyanide compound, wherein the copolymer comprises 30 to 55 % by weight of the (meth)acrylic acid alkyl ester compound, 25 to 50 % by weight of the α-methyl styrene-based compound, and 10 to 30 % by weight of the vinyl cyanide compound; and 6 to 30 % by weight of a polymethacrylate resin (not containing α-methyl styrene), wherein the polymethacrylate resin (not containing α-methyl styrene) is a methyl methacrylate-styrene-acrylonitrile copolymer, or a mixture of a methyl methacrylate-styrene-acrylonitrile copolymer and a polymethyl methacrylate resin; wherein the average multi-axial impact strength, which is obtained by measuring a maximum load energy 10 times at a speed of 4.4 m/s according to ISO 6603-2, of a specimen having a thickness of 2.0 mm is 22 J/mm or more, and a standard deviation thereof is 6.5 or less, wherein the average particle diameter is measured as disclosed in the specification. 3 to 22 % by weight of a graft copolymer (A-1) comprising an acrylate-based rubber having an average particle diameter of 200 to 400 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 17 to 40 % by weight of a graft copolymer (A-2) comprising an acrylate-based rubber having an average particle diameter of 50 to 199 nm, an aromatic vinyl compound, and a vinyl cyanide compound; 30 to 57 % by weight of a copolymer comprising a (meth)acrylic acid alkyl ester compound, an α-methyl styrene-based compound, and a vinyl cyanide compound, wherein the copolymer comprises 30 to 55 % by weight of the (meth)acrylic acid alkyl ester compound, 25 to 50 % by weight of the α-methyl styrene-based compound, and 10 to 30 % by weight of the vinyl cyanide compound; and 6 to 30 % by weight of a polymethacrylate resin (not containing α-methyl styrene), wherein the polymethacrylate resin (not containing α-methyl styrene) is a methyl methacrylate-styrene-acrylonitrile copolymer, or a mixture of a methyl methacrylate-styrene-acrylonitrile copolymer and a polymethyl methacrylate resin; wherein the average multi-axial impact strength, which is obtained by measuring a maximum load energy 10 times at a speed of 4.4 m/s according to ISO 6603-2, of a specimen having a thickness of 2.0 mm is 22 J/mm or more, and a standard deviation thereof is 6.5 or less, wherein the average particle diameter is measured as disclosed in the specification.
A composite positive electrode active material for a lithium-ion battery comprising: a composite represented by Formula 4: Formula 4 xLi 2 M 2 O 3 ·yLiMeO 2 ·zLi 2 M 1 (1+a) Mn (3-a) O 8 wherein, in Formula 4, x+y+z=1, 0<x<1, 0<y<1, -1<a<1; xLi 2 MO 3 ·yLiMeO 2 has a layered structure, and, zLi 2 M 1 (1+a) Mn (3-a) O 8 has a spinel phase structure; M 1 is at least one selected from V, Cr, Fe, Co, Ni, Zr, Re, Al, B, Ge, Ru, Sn, Ti, Nb, Mo, and Pt; M 2 is manganese (Mn); and Me is represented by Formula 5: Formula 5 Ni 1-b-c Co b Mn c wherein, in Formula 5, 0<b<0.5, 0.2<c<0.5, and 0.2<b+c≤1, characterized in that z is in a range of 0.005 to 0.05. a composite represented by Formula 4: Formula 4 xLi 2 M 2 O 3 ·yLiMeO 2 ·zLi 2 M 1 (1+a) Mn (3-a) O 8 wherein, in Formula 4, x+y+z=1, 0<x<1, 0<y<1, -1<a<1; xLi 2 MO 3 ·yLiMeO 2 has a layered structure, and, zLi 2 M 1 (1+a) Mn (3-a) O 8 has a spinel phase structure; M 1 is at least one selected from V, Cr, Fe, Co, Ni, Zr, Re, Al, B, Ge, Ru, Sn, Ti, Nb, Mo, and Pt; M 2 is manganese (Mn); and Me is represented by Formula 5: Formula 5 Ni 1-b-c Co b Mn c wherein, in Formula 5, 0<b<0.5, 0.2<c<0.5, and 0.2<b+c≤1,
Temperature sensor, which comprises a semiconductor sensor element and at least two connection lines (3, 4, 5, 6, 8, 9), wherein a varistor, which bridges the connection lines (3, 5, 9; 4, 6, 8), is connected in parallel to the semiconductor sensor element, characterized in that the varistor is arranged at a distance of at least 20 mm from the semiconductor sensor element, wherein the connection lines (3, 4, 5, 6, 8, 9) each comprise at least two connection line portions (3, 5; 4, 6), which each are surrounded by an electrical isolation (13, 14) and are each electrically connected to each other, wherein the surrounding electrical isolation (13, 14) of the connection lines (3, 4, 5, 6) is at least interrupted at the transition between the connection line portions (3, 4, 5, 6) and each a connector of the varistor is electrically connected to one of each of the connection lines (3, 4, 5, 6) at a section without electrical isolation (13, 14).
A controlled potential electrolysis gas sensor including, as gas electrodes for detecting gas, a working electrode for electrochemically reacting gas to be detected, a counter electrode with respect to the working electrode, and a reference electrode for controlling potential of the working electrode, the gas electrodes being disposed to face an electrolysis solution accommodating portion of an electrolysis tank accommodating electrolytic solution: wherein each electrode includes a gas permeable membrane, a noble metal catalyst layer disposed on the gas permeable membrane, and a polymer layer disposed on the noble metal catalyst layer and having ion conductivity and water permeability.
An inclination detector, comprising: a liquid container, comprising a container body containing liquid forming a free surface having a center; a light source to emit a light beam to the free surface of the liquid container; a visual field pattern disposed between the light source and the free surface (11 A) to form a pattern of the light beam; an optical relay element disposed so that the light beam is reflected by the center of the free surface; an optical sensor to detect the pattern of the light beam reflected by the free surface; and an arithmetic unit to calculate an inclination angle of the container body relative to the free surface on the basis of the pattern detected by the optical sensor; characterized in the container body having a circumferential wall being spherical, and a wave-dissipating element spherically protruding upward from a center of a bottom of the container body and having a spherical center portion, wherein the circumferential wall is formed so that a center of the spherical circumferential wall and the center of the free surface coincide with each other. a liquid container, comprising a container body containing liquid forming a free surface having a center; a light source to emit a light beam to the free surface of the liquid container; a visual field pattern disposed between the light source and the free surface (11 A) to form a pattern of the light beam; an optical relay element disposed so that the light beam is reflected by the center of the free surface; an optical sensor to detect the pattern of the light beam reflected by the free surface; and an arithmetic unit to calculate an inclination angle of the container body relative to the free surface on the basis of the pattern detected by the optical sensor;
A standalone wearable protector, in particular for motorcycle drivers, comprising: a thin layer supporting fabric suitable for being worn by a user and for covering at least a trunk portion of a user's body; said thin layer supporting fabric being substantially unable to resist to abrasion and to friction stresses; at least one inflatable bag; said at least one inflatable bag being housed in a seat provided in the thin layer supporting fabric; at least one gas generator acting as inflating means connected to said at least one inflatable bag, said at least one gas generator being fastened directly or indirectly to said thin layer supporting fabric; a control unit fastened directly or indirectly to said thin layer supporting fabric; characterised by sensing means connected to said control unit and provided on said thin layer supporting fabric, the control unit being suitable for activating the at least one gas generator when a danger situation is detected by the sensing means. a thin layer supporting fabric suitable for being worn by a user and for covering at least a trunk portion of a user's body; said thin layer supporting fabric being substantially unable to resist to abrasion and to friction stresses; at least one inflatable bag; said at least one inflatable bag being housed in a seat provided in the thin layer supporting fabric; at least one gas generator acting as inflating means connected to said at least one inflatable bag, said at least one gas generator being fastened directly or indirectly to said thin layer supporting fabric; a control unit fastened directly or indirectly to said thin layer supporting fabric; characterised by sensing means connected to said control unit and provided on said thin layer supporting fabric, the control unit being suitable for activating the at least one gas generator when a danger situation is detected by the sensing means.
Modular furniture comprising: a base element that is substantially in the shape of a plate, a functional element that is arranged next to and so as to adjoin the base element and extends in a direction normal to the plane defined by the plate-shaped base element, wherein the base element and the functional element comprise a grid-like footprint, and a supply duct for guiding supply lines is provided, which duct extends underneath the surface formed by the base element and the functional element, characterized in that in each case the footprint of the base element and the functional element corresponds to a particular, common surface grid, and the base element and the functional element are placed on an installation grid that serves as a docking site for the base element and the functional element. a base element that is substantially in the shape of a plate, a functional element that is arranged next to and so as to adjoin the base element and extends in a direction normal to the plane defined by the plate-shaped base element, wherein the base element and the functional element comprise a grid-like footprint, and a supply duct for guiding supply lines is provided, which duct extends underneath the surface formed by the base element and the functional element, characterized in that in each case the footprint of the base element and the functional element corresponds to a particular, common surface grid, and the base element and the functional element are placed on an installation grid that serves as a docking site for the base element and the functional element.
A method for transmitting a positioning measurement report by a user equipment, said method comprising: receiving a location information request from a serving base station or from a location server; determining timing for transmitting a positioning measurement report, wherein the timing indicates one transmission occasion or multiple periodic transmission occasions; characterized in that the method comprises: generating a report assisted message comprising the determined timing for transmitting the positioning measurement report; transmitting a scheduling request to the serving base station or initiating a random access procedure to request resource for transmitting the report assisted message; receiving a first uplink grant from the serving base station for transmitting the report assisted message; transmitting the report assisted message to the serving base station, according to the received first uplink grant for scheduling of transmitting the positioning measurement report; measuring a positioning reference signal for the positioning measurement report and receiving a second uplink grant for transmitting the positioning measurement report, and transmitting the positioning measurement report to the serving base station according to the received second uplink grant. receiving a location information request from a serving base station or from a location server; determining timing for transmitting a positioning measurement report, wherein the timing indicates one transmission occasion or multiple periodic transmission occasions; characterized in that the method comprises: generating a report assisted message comprising the determined timing for transmitting the positioning measurement report; transmitting a scheduling request to the serving base station or initiating a random access procedure to request resource for transmitting the report assisted message; receiving a first uplink grant from the serving base station for transmitting the report assisted message; transmitting the report assisted message to the serving base station, according to the received first uplink grant for scheduling of transmitting the positioning measurement report; measuring a positioning reference signal for the positioning measurement report and receiving a second uplink grant for transmitting the positioning measurement report, and transmitting the positioning measurement report to the serving base station according to the received second uplink grant.
Multi-apparatus block comprising: - an elongated casing that has a front face providing access to the functional parts of at least two electrical apparatus, and an opposite rear face, and - a connector that emerges from the rear face of the elongated casing, and that is mounted mobile in translation onto the elongated casing, along an axis of translation that is orthogonal to the longitudinal axis of the elongated casing, characterized in that the connector includes a tubular bushing that houses, at the rear face of the elongated casing, an electrical plug and that passes right through the elongated casing, so that it opens into the front face of the elongated casing in such a manner that a user can press it directly. - an elongated casing that has a front face providing access to the functional parts of at least two electrical apparatus, and an opposite rear face, and - a connector that emerges from the rear face of the elongated casing, and that is mounted mobile in translation onto the elongated casing, along an axis of translation that is orthogonal to the longitudinal axis of the elongated casing,