mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing flow group Quality of Service, QoS, control in a Next Generation Network, NGN, comprising: receiving, by a Policy Decision Physical Entity, PD-PE, a resource allocation request that carries a requested flow group information from a Service Control Entity, SCE through a Rs interface, wherein the requested flow group information is configured to identify the features of a flow group; determining, by the PD-PE, according to the resource allocation request that carries the requested flow group information, QoS resources required by the flow group (1401, 1501); characterized by further comprising: generating and sending, by the PD-PE, a QoS policy of the flow group to a Policy Enforcement Physical Entity, PE-PE, through a Rw interface, wherein the QoS policy of the flow group indicates that the QoS resources are shared by each flow in the flow group and comprises a decided flow group information and a QoS information of the flow group (1402, 1502), and wherein the decided flow group information comprises a filter rule, filter status, and service type of each flow from the flow group, so that the PE-PE allocates one or more bearers to one or more flows in the flow group according to the received QoS policy of the flow group and controls the resources occupied by the one or more bearers allocated to the one or more flows in the flow group to be less than the QoS resources required by the flow group (1403, 1503); wherein the Rs interface is the interface between the SCE and the PD-PE, and the Rw interface is the interface between the PD-PE and the PE-PE. receiving, by a Policy Decision Physical Entity, PD-PE, a resource allocation request that carries a requested flow group information from a Service Control Entity, SCE through a Rs interface, wherein the requested flow group information is configured to identify the features of a flow group; determining, by the PD-PE, according to the resource allocation request that carries the requested flow group information, QoS resources required by the flow group (1401, 1501); characterized by further comprising: generating and sending, by the PD-PE, a QoS policy of the flow group to a Policy Enforcement Physical Entity, PE-PE, through a Rw interface, wherein the QoS policy of the flow group indicates that the QoS resources are shared by each flow in the flow group and comprises a decided flow group information and a QoS information of the flow group (1402, 1502), and wherein the decided flow group information comprises a filter rule, filter status, and service type of each flow from the flow group, so that the PE-PE allocates one or more bearers to one or more flows in the flow group according to the received QoS policy of the flow group and controls the resources occupied by the one or more bearers allocated to the one or more flows in the flow group to be less than the QoS resources required by the flow group (1403, 1503); wherein the Rs interface is the interface between the SCE and the PD-PE, and the Rw interface is the interface between the PD-PE and the PE-PE.
A method of wireless communication by a user equipment, UE, comprising: determining whether the UE is located within a sub-region of a multicast broadcast single-frequency network, MBSFN, area based on one or more parameters; receiving, based on the determination, a service over broadcast when the UE is located within the sub-region of the MBSFN area and over unicast when the UE is located within the MBSFN area but not within the sub-region, wherein the MBSFN area is smaller than a unicast area; wherein when the UE receives the service over broadcast switching from reception of the service over broadcast to reception of the service over unicast based on at least on the one or more parameters; and wherein when the UE receives the service over unicast measuring signal quality from the MBSFN area and switching from reception of the service over unicast to reception of the service over broadcast based on the measured signal quality. determining whether the UE is located within a sub-region of a multicast broadcast single-frequency network, MBSFN, area based on one or more parameters; receiving, based on the determination, a service over broadcast when the UE is located within the sub-region of the MBSFN area and over unicast when the UE is located within the MBSFN area but not within the sub-region, wherein the MBSFN area is smaller than a unicast area; wherein when the UE receives the service over broadcast switching from reception of the service over broadcast to reception of the service over unicast based on at least on the one or more parameters; and wherein when the UE receives the service over unicast measuring signal quality from the MBSFN area and switching from reception of the service over unicast to reception of the service over broadcast based on the measured signal quality.
A method of communication at a first apparatus, comprising: scheduling to transmit a signal via a first uplink beam for a particular time with a second apparatus; generating the signal for transmission to the second apparatus; detecting at least one condition associated with transmitting the signal via the first uplink beam at a first transmission power, wherein the at least one condition includes the first uplink beam exceeding a maximum permissible exposure limit; refraining from transmitting the signal via the first uplink beam based on the at least one condition, wherein the signal is not transmitted via the first uplink beam at the particular time; and transmitting the signal to the second apparatus using a second uplink beam different from the first uplink beam, wherein the transmitting the signal to the second apparatus includes selecting the second uplink beam that does not exceed the maximum permissible exposure limit, indicating, to the second apparatus prior to the particular time, one or more uplink beams other than the first uplink beam for transmitting the signal, wherein the one or more uplink beams includes the second uplink beam, and transmitting the signal via the second uplink beam at the first transmission power, wherein the second uplink beam is directed in a different direction than the first uplink beam. scheduling to transmit a signal via a first uplink beam for a particular time with a second apparatus; generating the signal for transmission to the second apparatus; detecting at least one condition associated with transmitting the signal via the first uplink beam at a first transmission power, wherein the at least one condition includes the first uplink beam exceeding a maximum permissible exposure limit; refraining from transmitting the signal via the first uplink beam based on the at least one condition, wherein the signal is not transmitted via the first uplink beam at the particular time; and transmitting the signal to the second apparatus using a second uplink beam different from the first uplink beam, wherein the transmitting the signal to the second apparatus includes selecting the second uplink beam that does not exceed the maximum permissible exposure limit, indicating, to the second apparatus prior to the particular time, one or more uplink beams other than the first uplink beam for transmitting the signal, wherein the one or more uplink beams includes the second uplink beam, and transmitting the signal via the second uplink beam at the first transmission power, wherein the second uplink beam is directed in a different direction than the first uplink beam.
A method of making a piston body for an internal combustion engine, comprising the steps of: casting or forging a portion of a piston body for use in an internal combustion engine; and melting a metallic powder through an additive manufacturing process to build the remainder of the piston body onto the cast or forged portion of the piston body, wherein the cast or forged portion of the piston body includes a pair of skirt portions and a pair of pin bosses and wherein the portion of the piston built through the additive manufacturing process includes an upper combustion surface and an enclosed oil gallery, the piston body optionally having at least one opening for receiving and dispensing cooling oil. casting or forging a portion of a piston body for use in an internal combustion engine; and melting a metallic powder through an additive manufacturing process to build the remainder of the piston body onto the cast or forged portion of the piston body, wherein the cast or forged portion of the piston body includes a pair of skirt portions and a pair of pin bosses and wherein the portion of the piston built through the additive manufacturing process includes an upper combustion surface and an enclosed oil gallery, the piston body optionally having at least one opening for receiving and dispensing cooling oil.
An assembly to perform a hydrometallurgical recovery of materials from electronic boards; said assembly being characterized by comprising at least: a) a basket to house electronic boards, which comprises a mesh structure with meshes having dimensions ranging from 1 to 10 cm; b) a dissolver, which is designed to house, on the inside and in a removable manner, said basket and to be filled with a leaching solution comprising at least HNO 3 at a concentration greater than or equal to 20% w/w; said dissolver comprising a bottom portion having a draining device to empty it; c) stirring means, which are designed to stir the leaching solution on the inside of said dissolver; d) a vibrating screen, which is designed to be connected to said draining means of the dissolver so as to receive their leaching solution; said vibrating screen comprising at least one first screen having holes with dimensions ranging from 10 to 3 mm for the recovery of unwelded components of different nature, and a second screen having holes with dimensions ranging from 0.5 to 0.01 mm for the recovery of metal Au. a) a basket to house electronic boards, which comprises a mesh structure with meshes having dimensions ranging from 1 to 10 cm; b) a dissolver, which is designed to house, on the inside and in a removable manner, said basket and to be filled with a leaching solution comprising at least HNO 3 at a concentration greater than or equal to 20% w/w; said dissolver comprising a bottom portion having a draining device to empty it; c) stirring means, which are designed to stir the leaching solution on the inside of said dissolver; d) a vibrating screen, which is designed to be connected to said draining means of the dissolver so as to receive their leaching solution; said vibrating screen comprising at least one first screen having holes with dimensions ranging from 10 to 3 mm for the recovery of unwelded components of different nature, and a second screen having holes with dimensions ranging from 0.5 to 0.01 mm for the recovery of metal Au.
A method for controlling an assembly of functional members and associated equipment of a vehicle, said assembly comprising a first member comprising at least one motorised seat, arranged in a predetermined area of the passenger compartment of the vehicle, said seat being capable of adopting a plurality of predetermined positions, a second member that generates sound comprising loudspeakers (37, 40) capable of producing sound in one or more predetermined areas of the vehicle, a third member that generates light, comprising lighting means capable of lighting one or more predetermined areas of the vehicle, and a fourth member for treating the air of the passenger compartment, comprising a diffuser of at least one fragrance in the passenger compartment, capable of being coupled with the air-conditioning and ventilation device of the vehicle, said method consisting in controlling in a coordinated manner each of the first, second, third and fourth members (3 to 6) according to a sequence of phases of a predefined scenario in which each of the phases of the scenario involves all of the first, second, third and fourth members (3 to 6), said method being characterized in that it consists, prior to the installation of the user in the seat of the vehicle: - in selecting at least one area in the interior of the passenger compartment in which the user wishes to sit down; - in selecting a predefined scenario to associate with said area; - in pre-conditioning the seat associated with said area and the second, third and fourth members (4 to 6) as a function of the selected scenario; and in that said scenario is parameterizable and controllable by the user from at least one man-machine interface. - in selecting at least one area in the interior of the passenger compartment in which the user wishes to sit down; - in selecting a predefined scenario to associate with said area; - in pre-conditioning the seat associated with said area and the second, third and fourth members (4 to 6) as a function of the selected scenario;
A dispersant additive wherein the structure of the additive comprises at least one block derived from (i) a polyester of a hydroxy substituted carboxylic acid selected from the group consisting of 12-hydroxystearic acid, ricinoleic acid, 12-hydroxy dodecanoic acid, 5-hydroxy dodecanoic acid, 5-hydroxy decanoic acid, 4-hydroxy decanoic acid, 10-hydroxy undecanoic acid, or combinations thereof, and at least one block derived from (ii) a polyalkylene glycol terminated by an amine group or a hydroxyl group.
A signal processing method comprising: estimating a voice masking threshold by analysing a transmitted voice signal transformed to a frequency domain based on a psychoacoustic principle; determining a class for each band of the voice signal by classifying the voice signal to a donation band and a residual band based on a frequency band, the donation band set to at least one band from the lowest band, and classifying the residual band into an active band or an inactive band by comparing an energy of the voice signal and the voice masking threshold; extracting a noise signal by analysing a signal received from a microphone; estimating a noise masking threshold by analysing the noise signal based on a psychoacoustic principle; determining a class for each band of the noise signal by classifying the noise signal into an active band or an inactive band by comparing an energy of the noise signal and the noise masking threshold; generating guide information for enhancement of intelligibility based on the class for each band of the voice signal and the class for each band of the noise signal; and generating a changed voice spectrum by applying the guide information to a voice spectrum of the transmitted voice signal. estimating a voice masking threshold by analysing a transmitted voice signal transformed to a frequency domain based on a psychoacoustic principle; determining a class for each band of the voice signal by classifying the voice signal to a donation band and a residual band based on a frequency band, the donation band set to at least one band from the lowest band, and classifying the residual band into an active band or an inactive band by comparing an energy of the voice signal and the voice masking threshold; extracting a noise signal by analysing a signal received from a microphone; estimating a noise masking threshold by analysing the noise signal based on a psychoacoustic principle; determining a class for each band of the noise signal by classifying the noise signal into an active band or an inactive band by comparing an energy of the noise signal and the noise masking threshold; generating guide information for enhancement of intelligibility based on the class for each band of the voice signal and the class for each band of the noise signal; and generating a changed voice spectrum by applying the guide information to a voice spectrum of the transmitted voice signal.
Transport device, with two transport elements (1, 1'), each having a support plate supported by at least two running members, which can be used as transport means for furniture both in an unconnected state and in a connected state, and with first and second connecting members (4, 4') with which the transport elements (1, 1') can be fastened to one another in a parallel arrangement, in which two longitudinal edges (5, 7) of the supporting plates bear against one another, or in a V-position, in which a triangular free space remains between two longitudinal edges (5, 7) which extend in a V-shape relative to one another and point towards one another, the connecting members (4, 4') having two fastening points which are spaced apart from one another, which can be fastened at first, second and third fastening points (14, 14', 16) on one of the supporting plates, two connecting members (4, 4') being fastened in the parallel arrangement to the two narrow edges (6, 8) of the essentially rectangular supporting plate at the first and second fastening points (14, 14') and wherein in the V-arrangement the first connecting member is fastened to the first fastening points at a narrow edge and the second connecting member is fastened to the third fastening points at two longitudinal edges (5, 7) extending in a V-shape relative to one another, wherein the third fastening points are spaced apart from one another in the parallel arrangement by a shorter distance than the fastening points of each connecting member (4, 4').
A system for extracting hydrocarbons from drill cuttings, the system comprising: at least one extraction tank; a liquid carbon dioxide tank fluidly connected to the at least one extraction tank, whereby liquid carbon dioxide can be supplied to the at least one extraction tank to extract hydrocarbons from drill cuttings located therein, in use; at least one carbon dioxide heater fluidly connected to the at least one extraction tank, wherein liquid carbon dioxide is converted to carbon dioxide vapour; at least one separation tank in fluid communication with the at least one carbon dioxide heater, wherein carbon dioxide vapour is separated from hydrocarbons; and characterised by a pump, for transferring water via a transfer line, in fluid communication with the at least one extraction tank and operable to displace residual carbon dioxide within the at least one extraction tank to the liquid carbon dioxide tank after a mixture of carbon dioxide and hydrocarbons has been moved to the at least one separation tank. at least one extraction tank; a liquid carbon dioxide tank fluidly connected to the at least one extraction tank, whereby liquid carbon dioxide can be supplied to the at least one extraction tank to extract hydrocarbons from drill cuttings located therein, in use; at least one carbon dioxide heater fluidly connected to the at least one extraction tank, wherein liquid carbon dioxide is converted to carbon dioxide vapour; at least one separation tank in fluid communication with the at least one carbon dioxide heater, wherein carbon dioxide vapour is separated from hydrocarbons; and characterised by a pump, for transferring water via a transfer line, in fluid communication with the at least one extraction tank and operable to displace residual carbon dioxide within the at least one extraction tank to the liquid carbon dioxide tank after a mixture of carbon dioxide and hydrocarbons has been moved to the at least one separation tank.
An electrical machine, comprising: a rotor (150A, 150B) for rotation about a rotational axis; a coil arranged circumferentially with respect to and encircling the rotational axis; and a stator assembly comprising a ring shaped lamina structure comprising a stem portion; characterized in that the coil extends in a single plane about the rotational axis; in that the ring shaped lamina structure is formed from a single lamina and consists of a piece of planar material; in that the stem portion is formed from said planar material; in that the ring shaped lamina structure further comprises a plurality of gaps in the ring shaped lamina structure that extends radially from the stem portion to an edge of the ring shaped lamina structure, wherein said gaps form a plurality of radially extending members in said planar material that are integral with and extending from said stem portion to form a plurality of opposing extending members about the coil; in that a first set of extending members are configured on a first side of said coil and a second set of extending members are configured on a second, and opposing side from said first side, of said coil; in that the first set and second set of extending members form a coil channel that extends circumferentially with respect to said rotational axis and wherein the coil is configured in said coil channel wherein a first set of extending members and second set of extending members are formed from the same piece of planar material; and in that the electrical machine is a transverse flux machine. a rotor (150A, 150B) for rotation about a rotational axis; a coil arranged circumferentially with respect to and encircling the rotational axis; and a stator assembly comprising a ring shaped lamina structure comprising a stem portion; characterized in that the coil extends in a single plane about the rotational axis; in that the ring shaped lamina structure is formed from a single lamina and consists of a piece of planar material; in that the stem portion is formed from said planar material; in that the ring shaped lamina structure further comprises a plurality of gaps in the ring shaped lamina structure that extends radially from the stem portion to an edge of the ring shaped lamina structure, wherein said gaps form a plurality of radially extending members in said planar material that are integral with and extending from said stem portion to form a plurality of opposing extending members about the coil;
A surgical apparatus, comprising: a rotatable shaft, which comprises a cutter located thereon, wherein the cutter is configured to cut an object when the shaft is rotating about a rotational axis; a turbine assembly, which comprises a turbine and a turbine housing, wherein the turbine is configured to rotate the shaft so as to cut the object by the cutter, and wherein the turbine housing is configured to: receive a fluid that enters the housing parallel to the rotational axis, steer a first portion of the fluid through a first nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis while allowing a portion of the fluid to continue flowing parallel to the rotational axis, and steer a second portion of the fluid through a second nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis; and an exhaust pipe, which is coupled to the cutter and is coaxially disposed in the turbine housing, wherein the exhaust pipe is configured to draw the object away from the surgical apparatus. a rotatable shaft, which comprises a cutter located thereon, wherein the cutter is configured to cut an object when the shaft is rotating about a rotational axis; a turbine assembly, which comprises a turbine and a turbine housing, wherein the turbine is configured to rotate the shaft so as to cut the object by the cutter, and wherein the turbine housing is configured to: receive a fluid that enters the housing parallel to the rotational axis, steer a first portion of the fluid through a first nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis while allowing a portion of the fluid to continue flowing parallel to the rotational axis, and steer a second portion of the fluid through a second nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis; and receive a fluid that enters the housing parallel to the rotational axis, steer a first portion of the fluid through a first nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis while allowing a portion of the fluid to continue flowing parallel to the rotational axis, and steer a second portion of the fluid through a second nozzle to impinge on the turbine in a direction that is not parallel to the rotational axis; and an exhaust pipe, which is coupled to the cutter and is coaxially disposed in the turbine housing, wherein the exhaust pipe is configured to draw the object away from the surgical apparatus.