mhurhangee/patent-ind-claim-en huggingface dataset:
Access and Mobility Management Function, AMF, node, adapted for taking part in a handover from a 5G system, 5GS, to an Evolved Packet System, EPS, an interface being provided between a Mobility Management Entity, MME, of the EPS and the AMF node, wherein the MME being handed over to also being denoted target MME, and wherein Packet Data Network, PDN, session type Ethernet and Unstructured are mapped to non-IP PDN type in EPC; the AMF node being adapted for signalling with a Session Management Function and Packet Data Network, PDN, Gateway - Control plane, SMF and PGW-C (SMF+PGW-C) entity, the AMF node being adapted for - providing a request (102d, 2-2a), in the handover, to the SMF and PGW-C entity to provide a Session Management, SM, Context; - transmitting the request (2-2a) to the SMF and PGW-C entity, characterized in that - for PDU Sessions with PDU Session type Ethernet or Unstructured, providing (102e1) a capability of the target MME of supporting a Non-IP PDN type to the SMF and PGW-C entity in the request (2-2a). - providing a request (102d, 2-2a), in the handover, to the SMF and PGW-C entity to provide a Session Management, SM, Context; - transmitting the request (2-2a) to the SMF and PGW-C entity, - for PDU Sessions with PDU Session type Ethernet or Unstructured, providing (102e1) a capability of the target MME of supporting a Non-IP PDN type to the SMF and PGW-C entity in the request (2-2a).
Stator for an electronically commutated DC motor, comprising a plurality of stator poles that are configured as separate parts and consist of a pole core , pole shoes and yoke portions , the yoke portions of the stator poles having intermeshing profiles at which the yoke portions abut one another such that together they form a hollow-cylindrical yoke , the pole cores adjoining the yoke portions in a manner facing radially inwards, the individual stator poles are each provided with insulation and a winding, and the wound stator poles are held together by a retainer part and the retainer part is a metal clamping ring that is placed around the entire circumference of the hollow-cylindrical yoke in a pretensioned manner and clamp the stator poles together, characterised in that the clamping ring is formed in one piece having screw eyelets that adjoin an annular region and are bent down at right angles.
Process for synthesizing an AFX zeolite having a purity of greater than 90%, comprising at least the following steps: i) mixing, in an aqueous medium, of at least one source of silicon (Si) in SiO 2 oxide form, at least one source of aluminium (Al) in Al 2 O 3 oxide form, a nitrogenous organic compound R, R being 1,6-bis(methylpiperidinium)hexane dihydroxide, of at least one source of at least one alkali metal M chosen from lithium, potassium or sodium, and the mixture of at least two of these metals, the reaction mixture having the following molar composition: SiO 2 /Al 2 O 3 between 4 and 60, preferably between 8 and 40, H 2 O/SiO 2 between 5 and 60, preferably between 10 and 40, R/SiO 2 between 0.05 and 0.50, preferably between 0.10 and 0.30, M 2 O/SiO 2 between 0.10 and 0.30, preferably between 0.15 and 0.25, until a homogeneous precursor gel is obtained; ii) hydrothermal treatment under atmospheric pressure of said precursor gel obtained at the end of step i) at a temperature of between 75°C and 95°C, limits included, for a period of between 40 and 100 hours, limits included, to obtain a solid AFX-structure crystalline phase, termed "AFX zeolite". i) mixing, in an aqueous medium, of at least one source of silicon (Si) in SiO 2 oxide form, at least one source of aluminium (Al) in Al 2 O 3 oxide form, a nitrogenous organic compound R, R being 1,6-bis(methylpiperidinium)hexane dihydroxide, of at least one source of at least one alkali metal M chosen from lithium, potassium or sodium, and the mixture of at least two of these metals, the reaction mixture having the following molar composition: SiO 2 /Al 2 O 3 between 4 and 60, preferably between 8 and 40, H 2 O/SiO 2 between 5 and 60, preferably between 10 and 40, R/SiO 2 between 0.05 and 0.50, preferably between 0.10 and 0.30, M 2 O/SiO 2 between 0.10 and 0.30, preferably between 0.15 and 0.25, until a homogeneous precursor gel is obtained; SiO 2 /Al 2 O 3 between 4 and 60, preferably between 8 and 40, H 2 O/SiO 2 between 5 and 60, preferably between 10 and 40, R/SiO 2 between 0.05 and 0.50, preferably between 0.10 and 0.30, M 2 O/SiO 2 between 0.10 and 0.30, preferably between 0.15 and 0.25, until a homogeneous precursor gel is obtained; ii) hydrothermal treatment under atmospheric pressure of said precursor gel obtained at the end of step i) at a temperature of between 75°C and 95°C, limits included, for a period of between 40 and 100 hours, limits included, to obtain a solid AFX-structure crystalline phase, termed "AFX zeolite".
A lubricant composition comprising: (a) an oil having a kinematic viscosity at 100 °C of 2.2 to 3.7 mm 2 /s; (b) at least one borate ester having an alkyl group of 4 to 18 carbon atoms in an amount to provide 25 to 300, or 30 to 150, or 50 to 100, parts per million by weight boron to the composition; (c) at least one phosphorus ester in an amount to provide 150 to 650 parts per million by weight phosphorus to the composition; (d) a viscosity index modifier comprising a linear polymer viscosity modifier having dispersant functionality, wherein the linear polymer has a weight average molecular weight of 5,000 to 25,000, and wherein said linear polymer is present in an amount of 0.1 to 4 weight percent; and (e) a borated succinimide dispersant to provide 180 to 270 ppm boron to the lubricant composition; wherein the kinematic viscosity at 100 °C of the lubricant composition is less than or equal to 4.7 mm 2 /s. (a) an oil having a kinematic viscosity at 100 °C of 2.2 to 3.7 mm 2 /s; (b) at least one borate ester having an alkyl group of 4 to 18 carbon atoms in an amount to provide 25 to 300, or 30 to 150, or 50 to 100, parts per million by weight boron to the composition; (c) at least one phosphorus ester in an amount to provide 150 to 650 parts per million by weight phosphorus to the composition; (d) a viscosity index modifier comprising a linear polymer viscosity modifier having dispersant functionality, wherein the linear polymer has a weight average molecular weight of 5,000 to 25,000, and wherein said linear polymer is present in an amount of 0.1 to 4 weight percent; and (e) a borated succinimide dispersant to provide 180 to 270 ppm boron to the lubricant composition;
1. Use of boronic acids of the general formula (I) for increasing the storage stability of epoxy resin compositions comprising an epoxy resin, a curing agent for curing the epoxy resin and a curing accelerator for accelerating the curing of the epoxy resin, wherein formula (I) represents: wherein residue R 1 means: R 1 = alkyl, hydroxyalkyl or a residue of formula (II), wherein formula (II) is: wherein R 2 , R 3 , R 4 independently of one another mean and at least one residue R 2 , R 3 , R 4 is not hydrogen: R 2 , R 3 , R 4 = hydrogen, fluorine, chlorine, bromine, iodine, cyano, C 1 to C 5 alkyl, alkoxy, acyl, alkylsulfonyl, aryl, carboxyl or B(OH) 2 , wherein the epoxy resin composition comprises, as a curing accelerator, a curing accelerator according to formula (IV), wherein formula (IV) is: wherein R 6 , R 7 , R 8 independently of one another mean: R 6 , R 7 = independently of one another hydrogen or C 1 to C 5 alkyl, R 8 = hydrogen, C 1 to C 15 alkyl, C 3 to C 15 cycloalkyl, aryl, alkylaryl, C 1 to C 15 alkyl substituted with -NHC(O)NR 6 R 7 , Cato C 15 cycloalkyl substituted with -NHC(O)NR 6 R 7 , aryl substituted with -NHC(O)NR 6 R 7 or alkylaryl substituted with -NHC(O)NR 6 R 7 . R 1 = alkyl, hydroxyalkyl or a residue of formula (II), wherein formula (II) is: wherein R 2 , R 3 , R 4 independently of one another mean and at least one residue R 2 , R 3 , R 4 is not hydrogen: R 2 , R 3 , R 4 = hydrogen, fluorine, chlorine, bromine, iodine, cyano, C 1 to C 5 alkyl, alkoxy, acyl, alkylsulfonyl, aryl, carboxyl or B(OH) 2 , wherein the epoxy resin composition comprises, as a curing accelerator, a curing accelerator according to formula (IV), wherein formula (IV) is: wherein R 6 , R 7 , R 8 independently of one another mean: R 6 , R 7 = independently of one another hydrogen or C 1 to C 5 alkyl, R 8 = hydrogen, C 1 to C 15 alkyl, C 3 to C 15 cycloalkyl, aryl, alkylaryl, C 1 to C 15 alkyl substituted with -NHC(O)NR 6 R 7 , Cato C 15 cycloalkyl substituted with -NHC(O)NR 6 R 7 , aryl substituted with -NHC(O)NR 6 R 7 or alkylaryl substituted with -NHC(O)NR 6 R 7 . C 1 to C 15 alkyl substituted with -NHC(O)NR 6 R 7 , Cato C 15 cycloalkyl substituted with -NHC(O)NR 6 R 7 , aryl substituted with -NHC(O)NR 6 R 7 or alkylaryl substituted with -NHC(O)NR 6 R 7 .
A graphics processor , comprising: - a generating module configured to generate at least one set of pixel(s) to be displayed; - a display module connected to the generating module , the display module being configured to display each set of pixel(s) on a screen ; characterized in that the graphics processor further comprises: - a monitoring unit for monitoring the correct operation of the graphics processor integrated into the generating module , the monitoring unit being configured to determine a list of graphic context information item(s) for at least one pixel and to deliver said list to an external electronic supervision device which supervises the operation of the graphics processor , able to be connected to the graphics processor . - a generating module configured to generate at least one set of pixel(s) to be displayed; - a display module connected to the generating module , the display module being configured to display each set of pixel(s) on a screen ; characterized in that the graphics processor further comprises: - a monitoring unit for monitoring the correct operation of the graphics processor integrated into the generating module , the monitoring unit being configured to determine a list of graphic context information item(s) for at least one pixel and to deliver said list to an external electronic supervision device which supervises the operation of the graphics processor , able to be connected to the graphics processor . - a monitoring unit for monitoring the correct operation of the graphics processor integrated into the generating module , the monitoring unit being configured to determine a list of graphic context information item(s) for at least one pixel and to deliver said list to an external electronic supervision device which supervises the operation of the graphics processor , able to be connected to the graphics processor .
A display apparatus comprising: a substrate comprising a first pixel region (PA1) and a second pixel region (PA2) adjacent to the first pixel region (PA1); a circuit device layer (CL) on the substrate; a first light-emitting device module on the circuit device layer (CL), the first light-emitting device module comprising a first substrate and a first light-emitting device (OD1, OD11) provided on the first substrate and overlapping the first pixel region (PA1) to display a first color; characterized in that a second light-emitting device module is provided on the first light-emitting device module , the second light-emitting device module having a pixel penetration hole (OP3) overlapping the first pixel region (PA1) and penetrating a second substrate , the second light-emitting device module comprising the second substrate and a second light-emitting device (OD2, OD21) provided on the second substrate and overlapping the second pixel region (PA2) to display a second color different from the first color. a substrate comprising a first pixel region (PA1) and a second pixel region (PA2) adjacent to the first pixel region (PA1); a circuit device layer (CL) on the substrate; a first light-emitting device module on the circuit device layer (CL), the first light-emitting device module comprising a first substrate and a first light-emitting device (OD1, OD11) provided on the first substrate and overlapping the first pixel region (PA1) to display a first color; characterized in that a second light-emitting device module is provided on the first light-emitting device module , the second light-emitting device module having a pixel penetration hole (OP3) overlapping the first pixel region (PA1) and penetrating a second substrate , the second light-emitting device module comprising the second substrate and a second light-emitting device (OD2, OD21) provided on the second substrate and overlapping the second pixel region (PA2) to display a second color different from the first color.
A system for controlled thermal energy transfer, comprising: a thermal energy source ; a thermal energy sink , spaced apart from said thermal energy source; a suspension ; an electrocaloric structure , said electrocaloric structure carried by said suspension and configured for alternating physical movement between thermal communication with said thermal energy source and thermal communication with said thermal energy sink; and a control signal source (V) simultaneously providing both a temperature control signal for controlling the temperature of said electrocaloric structure and a movement control signal for controlling said alternating physical movement of said electrocaloric structure between thermal communication with said thermal energy source and thermal communication with said thermal energy sink, wherein said suspension is configured to bias said electrocaloric structure into thermal communication with said thermal energy source in the absence of said movement control signal, and said control signal source is configured to provide said movement control signal for moving said electrocaloric structure out of thermal communication with said thermal energy source, against said bias, and into thermal communication with said thermal energy sink. a thermal energy source ; a thermal energy sink , spaced apart from said thermal energy source; a suspension ; an electrocaloric structure , said electrocaloric structure carried by said suspension and configured for alternating physical movement between thermal communication with said thermal energy source and thermal communication with said thermal energy sink; and a control signal source (V) simultaneously providing both a temperature control signal for controlling the temperature of said electrocaloric structure and a movement control signal for controlling said alternating physical movement of said electrocaloric structure between thermal communication with said thermal energy source and thermal communication with said thermal energy sink, wherein said suspension is configured to bias said electrocaloric structure into thermal communication with said thermal energy source in the absence of said movement control signal, and said control signal source is configured to provide said movement control signal for moving said electrocaloric structure out of thermal communication with said thermal energy source, against said bias, and into thermal communication with said thermal energy sink.
A method comprising: causing , by a computing device, a texture projector to project a known texture pattern onto an environment; receiving , by the computing device, a plurality of images captured with at least two optical sensors, wherein the plurality of images comprises a first image of the environment as perceived from a first viewpoint of a first optical sensor and a second image of the environment as perceived from a second viewpoint of a second optical sensor; determining , by the computing device, a first depth estimate for at least one surface in the environment based on corresponding features between the first image and the second image determining , by the computing device and based on the first depth estimate, at least one region of at least one image of the plurality of images within which to search for a particular portion of the known texture pattern, wherein the at least one image is indicative of the environment and the known texture pattern projected onto the environment; determining , by the computing device, points corresponding to the particular portion of the known texture pattern within the at least one region of the at least one image; and determining , by the computing device, a second depth estimate for the at least one surface in the environment based on the determined points corresponding to the particular portion of the known texture pattern within the at least one region of the at least one image. causing , by a computing device, a texture projector to project a known texture pattern onto an environment; receiving , by the computing device, a plurality of images captured with at least two optical sensors, wherein the plurality of images comprises a first image of the environment as perceived from a first viewpoint of a first optical sensor and a second image of the environment as perceived from a second viewpoint of a second optical sensor; determining , by the computing device, a first depth estimate for at least one surface in the environment based on corresponding features between the first image and the second image determining , by the computing device and based on the first depth estimate, at least one region of at least one image of the plurality of images within which to search for a particular portion of the known texture pattern, wherein the at least one image is indicative of the environment and the known texture pattern projected onto the environment; determining , by the computing device, points corresponding to the particular portion of the known texture pattern within the at least one region of the at least one image; and determining , by the computing device, a second depth estimate for the at least one surface in the environment based on the determined points corresponding to the particular portion of the known texture pattern within the at least one region of the at least one image.
A component assembly , comprising a first component having an open end flange , and a second component having a respective open end flange , and a clamp for connecting the open end flanges to each other, wherein said clamp comprises a web extending between a first end and a second end , each end being provided with a connecting device for connecting said web ends to each other so that the clamp encloses the open end flanges , said clamp further comprising an alignment structure being configured to fit with corresponding engagement structures provided at the first open end flange and the second open end flange for circumferentially positioning the clamp relative to the open end flanges , and wherein one open end flange comprises at least one engagement structure , while the other open end flange comprises two or more engagement structures , such that the open end flanges can be circumferentially positioned in different fixed positions in respect to each other.
Meter electronics for geometric thermal compensation in a vibratory flow meter , with the meter electronics including an interface configured to receive one or more vibratory sensor signals and a temperature signal (T) of the vibratory flow meter , with the meter electronics being characterized by : a processing system coupled with the interface and configured to receive the one or more vibratory sensor signals and the temperature signal and compute a geometric thermal compensation factor (TFe) for the one or more flow conduits of the vibratory flow meter using the temperature signal (T), wherein the geometric thermal compensation factor (TFe) and a temperature dependent Young's modulus factor (TF y ) are used to process the one or more vibratory sensor signals, wherein the geometric thermal compensation factor (TFe) comprises a polynomial expression, and the processing system is further configured to compute a thermally compensated density ρ f according to the equation ρ f = K 2 ⋅ C 1 ⋅ TF y TF e 2 − C 2 TF e 3 , where K is a tube period, and C 1 and C 2 are calibration constants related to the one or more flow conduit's geometry and material properties at a reference temperature T 0 , with the (TFe) term including a linear coefficient of thermal expansion ( α ). a processing system coupled with the interface and configured to receive the one or more vibratory sensor signals and the temperature signal and compute a geometric thermal compensation factor (TFe) for the one or more flow conduits of the vibratory flow meter using the temperature signal (T), wherein the geometric thermal compensation factor (TFe) and a temperature dependent Young's modulus factor (TF y ) are used to process the one or more vibratory sensor signals, wherein the geometric thermal compensation factor (TFe) comprises a polynomial expression, and the processing system is further configured to compute a thermally compensated density ρ f according to the equation ρ f = K 2 ⋅ C 1 ⋅ TF y TF e 2 − C 2 TF e 3 , where K is a tube period, and C 1 and C 2 are calibration constants related to the one or more flow conduit's geometry and material properties at a reference temperature T 0 , with the (TFe) term including a linear coefficient of thermal expansion ( α ).
A control apparatus for an internal combustion engine , the internal combustion engine including a plurality of cylinders and ports, the ports including intake ports and exhaust ports corresponding to the plurality of the cylinders respectively, and the internal combustion engine being an internal combustion engine in which amounts of condensate water produced in the ports or flowing into the ports are different from one another among the cylinders due to differences in shape or arrangement of the ports or conduits leading to the ports among the plurality of the cylinders as to either the intake ports or the exhaust ports , the control apparatus comprising an electronic control unit configured to perform an operation of making a lift amount of a specific valve corresponding to one of either the intake ports or the exhaust ports equal to zero for a specific cylinder when the internal combustion engine is stopped, in a case where the electronic control unit predicts that condensate water is produced in one of either the intake ports or the exhaust ports or condensate water flows into one of either the intake ports or the exhaust ports , and the specific cylinder being a cylinder in which an amount of condensate water produced in one of either the corresponding intake ports or the corresponding exhaust ports or condensate water flowing into one of either the corresponding intake ports or the corresponding exhaust ports is larger than in the other ones of the plurality of the cylinders.
A dynamic wireless power transfer system comprising: a power transmission coil that is provided in a road ; a power transmission circuit that supplies electric power to the power transmission coil; a power reception coil that is provided in a vehicle ; a power reception circuit that is connected to the power reception coil; and a relay circuit that transfers electric power between the power transmission coil and the power reception coil, characterized in that the relay circuit includes a relay coil (71al, 71a2) that is provided in a tire of the vehicle, the tire includes a steel belt, the relay coil is provided in a tread portion of the tire that is further toward an outer circumferential side than the steel belt is, and the steel belt is covered by a conductive shield. a power transmission coil that is provided in a road ; a power transmission circuit that supplies electric power to the power transmission coil; a power reception coil that is provided in a vehicle ; a power reception circuit that is connected to the power reception coil; and a relay circuit that transfers electric power between the power transmission coil and the power reception coil, characterized in that the relay circuit includes a relay coil (71al, 71a2) that is provided in a tire of the vehicle, the tire includes a steel belt, the relay coil is provided in a tread portion of the tire that is further toward an outer circumferential side than the steel belt is, and the steel belt is covered by a conductive shield.