mhurhangee/ep-ind-claims huggingface dataset:
A method for predicting cellular network performance, performed by a cellular network monitoring system, based on observed performance indicator data derived from observed network data from high-load cells in the cellular network, comprising: accessing a set of observed performance indicator data, the observed performance indicator data comprising performance indicators for the cellular network measured in a time period, and using a subset of the observed performance indicator data as training data, another subset as testing data and yet another subset as validation data; classifying a cell based on the observed performance data, the classifying including classifying the cell as a high load growth cell or a high load non-growth cell; based on the classifying, deriving at least two predictive models, wherein the at least two predictive models comprises a first predictive model and a second predictive model, and each the first predictive model and the second predictive model are based on training data from a different one of high load growth cells, all high load cells and high load non-growth cells; based on the classifying, computing a future value of at least one of the performance indicators using a predictive model based on testing data for the cell used as input to the predictive model, wherein the computing comprises computing an ensemble predictive model combining future values from computing the at least two predictive models for the high load growth cells; and outputting the future value of the at least one of the performance indicators, wherein the set of observed performance indicator data comprises performance indicator data for a time period. accessing a set of observed performance indicator data, the observed performance indicator data comprising performance indicators for the cellular network measured in a time period, and using a subset of the observed performance indicator data as training data, another subset as testing data and yet another subset as validation data; classifying a cell based on the observed performance data, the classifying including classifying the cell as a high load growth cell or a high load non-growth cell; based on the classifying, deriving at least two predictive models, wherein the at least two predictive models comprises a first predictive model and a second predictive model, and each the first predictive model and the second predictive model are based on training data from a different one of high load growth cells, all high load cells and high load non-growth cells; based on the classifying, computing a future value of at least one of the performance indicators using a predictive model based on testing data for the cell used as input to the predictive model, wherein the computing comprises computing an ensemble predictive model combining future values from computing the at least two predictive models for the high load growth cells; and outputting the future value of the at least one of the performance indicators, wherein the set of observed performance indicator data comprises performance indicator data for a time period.
An internal fuel manifold for a turbomachine, comprising: an outer ring defining one or more fuel supply channels (103a-103d) configured to allow fuel flow around at least a portion of a circumference of the outer ring; a plurality of branches extending radially inward from the outer ring, wherein the branches include a high aspect ratio shape, wherein the plurality of branches include one or more branch fuel channels (107a-107c) in fluid communication with at least one of the one or more fuel supply channels (103a-103d); one or more injector connectors (113a-113c) extending axially aft from each branch, each injector connector in fluid communication with a branch fuel channel and configured to connect to a fuel injector; and an inner ring extending from the plurality of branches, wherein the inner ring and the outer ring are configured to receive a fuel injector and combustor assembly therebetween and to allow retaining of the fuel injector and combustor assembly to the internal fuel manifold. an outer ring defining one or more fuel supply channels (103a-103d) configured to allow fuel flow around at least a portion of a circumference of the outer ring; a plurality of branches extending radially inward from the outer ring, wherein the branches include a high aspect ratio shape, wherein the plurality of branches include one or more branch fuel channels (107a-107c) in fluid communication with at least one of the one or more fuel supply channels (103a-103d); one or more injector connectors (113a-113c) extending axially aft from each branch, each injector connector in fluid communication with a branch fuel channel and configured to connect to a fuel injector; and an inner ring extending from the plurality of branches, wherein the inner ring and the outer ring are configured to receive a fuel injector and combustor assembly therebetween and to allow retaining of the fuel injector and combustor assembly to the internal fuel manifold.
A method for wireless communication at a user equipment, UE, comprising: receiving one or more downlink transmissions from a base station via a wireless connection with the base station; determining physical layer feedback for the one or more downlink transmissions, the physical layer feedback associated with a physical layer of a protocol stack at the UE; and transmitting the physical layer feedback in one or more higher layer communications with the base station using a higher layer in the protocol stack than the physical layer; wherein the one or more higher layer communications include a medium access control, MAC, layer communication, and wherein the transmitting the physical layer feedback comprises transmitting a MAC control element, MAC-CE, that indicates feedback for one or more physical layer acknowledgment feedback processes; and wherein the MAC-CE is a variable length data or information transmission that includes a feedback process identification, ID, and a number of times that data associated with the feedback process identification was attempted to be decoded at the UE. receiving one or more downlink transmissions from a base station via a wireless connection with the base station; determining physical layer feedback for the one or more downlink transmissions, the physical layer feedback associated with a physical layer of a protocol stack at the UE; and transmitting the physical layer feedback in one or more higher layer communications with the base station using a higher layer in the protocol stack than the physical layer; wherein the one or more higher layer communications include a medium access control, MAC, layer communication, and wherein the transmitting the physical layer feedback comprises transmitting a MAC control element, MAC-CE, that indicates feedback for one or more physical layer acknowledgment feedback processes; and wherein the MAC-CE is a variable length data or information transmission that includes a feedback process identification, ID, and a number of times that data associated with the feedback process identification was attempted to be decoded at the UE.
A body-insertable device system, comprising: a casing to be introduced into a subject and including at least one imaging unit having a specific observing direction for the subject; liquid to be introduced into the subject; and a magnetic drive unit which is adapted to change at least one of a position and posture of the casing in the liquid, wherein the specific gravity of the body-insertable device system is smaller than a specific gravity of said liquid, wherein the imaging unit is disposed inside the casing so that the observing direction is directed upward or downward in a vertical direction when the casing is placed in the liquid when not relying on the magnetic force from the drive unit. a casing to be introduced into a subject and including at least one imaging unit having a specific observing direction for the subject; liquid to be introduced into the subject; and a magnetic drive unit which is adapted to change at least one of a position and posture of the casing in the liquid, wherein the specific gravity of the body-insertable device system is smaller than a specific gravity of said liquid, wherein the imaging unit is disposed inside the casing so that the observing direction is directed upward or downward in a vertical direction when the casing is placed in the liquid when not relying on the magnetic force from the drive unit.
A curable composition comprising a free-radical polymerizable acrylic monomer, an oxidizing agent, an aromatic tertiary amine reducing agent, and a tertiary amine co-accelerator comprising a bicyclic diaza compound that increases the reaction rate between the oxidizing agent and the reducing agent.
Steam ironing and/or uncreasing appliance comprising an ironing board against which a garment to be ironed can be placed for its steam treatment, said ironing board being mounted able to pivot by means of a hinge device enabling the ironing board to be immobilized in various tilted positions, the hinge device comprising a first part which is mobile in rotation in relation to a second part, the first part comprising at least one notch (69A, 69B) in which is engaged at least one locking element (65A, 68) carried by the second part in order to prevent the hinge device from rotating, the second part being mobile in translation in relation to the first part according to a course and a direction enabling the locking element (65A, 68) to engage and disengage in the notch (69A, 69B), wherein the hinge device comprises a finger, carried by either the first or second part (61, 62), which is mounted able to slide in a groove arranged in the other of the first or second part (61, 62), the finger being able to pivot freely in the groove.
An offset feed satellite television antenna, comprising: a metamaterial panel set in front of a feed, wherein the metamaterial panel comprises a core layer and a reflective panel set on a surface on a side of the core layer, the side being opposite to the feed, characterized in that the core layer comprises at least one core layer sheet layer, the core layer sheet layer comprises a sheet-shaped substrate and a plurality of artificial microstructures or pore structures set on the substrate, wherein the core layer sheet layer is divided into a plurality of strip regions(H1, H2, H3, H4, H5) according to refractive index profile, refractive indexes at a same radius from a specific point as a circle center(Ol) in the plurality of strip regions are the same and the refractive index decreases gradually with increase of the radius in each strip region, and, among two adjacent strip regions, a minimum value of the refractive index of a strip region located at an inner side is less than a maximum value of the refractive index of a strip region located at an outer side, a line that connects the circle center and the feed is vertical to the core layer sheet layer, and the circle center does not coincide with a center of the core layer sheet layer. a metamaterial panel set in front of a feed, wherein the metamaterial panel comprises a core layer and a reflective panel set on a surface on a side of the core layer, the side being opposite to the feed, characterized in that the core layer comprises at least one core layer sheet layer, the core layer sheet layer comprises a sheet-shaped substrate and a plurality of artificial microstructures or pore structures set on the substrate, wherein the core layer sheet layer is divided into a plurality of strip regions(H1, H2, H3, H4, H5) according to refractive index profile, refractive indexes at a same radius from a specific point as a circle center(Ol) in the plurality of strip regions are the same and the refractive index decreases gradually with increase of the radius in each strip region, and, among two adjacent strip regions, a minimum value of the refractive index of a strip region located at an inner side is less than a maximum value of the refractive index of a strip region located at an outer side, a line that connects the circle center and the feed is vertical to the core layer sheet layer, and the circle center does not coincide with a center of the core layer sheet layer.
A method for adjusting radio resource, comprising: acquiring, by a Radio Access Network, RAN, a radio resource using parameter of a terminal, wherein the radio resource using parameter of the terminal is used for indicating a rate of occurrence of receiving and sending data packets and/or a data packet transmission bandwidth when the terminal accesses network; adjusting, by the RAN, a radio bearer resource occupied by the terminal according to the radio resource using parameter of the terminal, wherein the adjusted radio bearer resource is used by the terminal to transmit data; and controlling, by the RAN, when the terminal keeps in a connection state for a long time, the terminal to operate by using a long Discontinuous Reception, DRX, parameter, wherein the terminal performs data receiving and sending in a short DRX ON period and does not perform data receiving and sending in a long DRX OFF period; wherein the RAN acquires the radio resource using parameter from a core network side, or the RAN measures the rate of occurrence of receiving and sending data packets and the data packet transmission bandwidth of the terminal. acquiring, by a Radio Access Network, RAN, a radio resource using parameter of a terminal, wherein the radio resource using parameter of the terminal is used for indicating a rate of occurrence of receiving and sending data packets and/or a data packet transmission bandwidth when the terminal accesses network; adjusting, by the RAN, a radio bearer resource occupied by the terminal according to the radio resource using parameter of the terminal, wherein the adjusted radio bearer resource is used by the terminal to transmit data; and controlling, by the RAN, when the terminal keeps in a connection state for a long time, the terminal to operate by using a long Discontinuous Reception, DRX, parameter, wherein the terminal performs data receiving and sending in a short DRX ON period and does not perform data receiving and sending in a long DRX OFF period; wherein the RAN acquires the radio resource using parameter from a core network side, or the RAN measures the rate of occurrence of receiving and sending data packets and the data packet transmission bandwidth of the terminal.
Display assembly comprising: - a supporting frame designed to define at least one cabinet; - a refrigerated display compartment formed in said cabinet and configured to contain and store refrigerated goods, a heated display compartment formed in said cabinet and configured to contain and store heated goods, a goods cooling system and a goods heating system, wherein: - the goods cooling system comprises a refrigeration system in turn comprising a compressor, an evaporator, a lamination element; - the goods cooling system is configured to carry out a refrigeration cycle when said first heat transfer fluid flows through the compressor, the evaporator, the lamination element and a high-pressure heat exchanger; - the goods heating system comprises at least one high-pressure heat exchanger, a heating heat exchanger, a second heat transfer fluid and a storage tank, the second heat transfer fluid being suited to flow through the at least one high-pressure heat exchanger and the heating heat exchanger to heat the heated display compartment with thermal energy originating from the first heat transfer fluid; characterized in that the storage tank of the second heat transfer fluid is contained within said cabinet, and in that the storage tank of the second heat transfer fluid is connected in series to the high-pressure heat exchanger and to the heating heat exchanger. - a supporting frame designed to define at least one cabinet; - a refrigerated display compartment formed in said cabinet and configured to contain and store refrigerated goods, a heated display compartment formed in said cabinet and configured to contain and store heated goods, a goods cooling system and a goods heating system, - the goods cooling system comprises a refrigeration system in turn comprising a compressor, an evaporator, a lamination element; - the goods cooling system is configured to carry out a refrigeration cycle when said first heat transfer fluid flows through the compressor, the evaporator, the lamination element and a high-pressure heat exchanger; - the goods heating system comprises at least one high-pressure heat exchanger, a heating heat exchanger, a second heat transfer fluid and a storage tank, the second heat transfer fluid being suited to flow through the at least one high-pressure heat exchanger and the heating heat exchanger to heat the heated display compartment with thermal energy originating from the first heat transfer fluid;
A method comprising: at a control plane entity, establishing at least a first path and a second path through a network for communications between the control plane entity and a user plane entity, the first path and the second path being disjoint from each other, wherein the first path is designated as a primary path and the second path is designated as a warm path; generating first messages which include entropy that causes the first messages to traverse the first path, first inband metadata that includes timestamp and sequence information, control plane message information, and a flag to indicate that the first messages are sent via the primary path and carry real control plane message information; generating second messages which include entropy that causes the second messages to traverse the second path, second inband metadata that includes timestamp and sequence information, dummy control plane message information, and a flag to indicate that the second messages are sent via the warm path and carry dummy control plane message information to be ignored by the user plane entity; and sending the first messages and the second messages into the network, wherein the entropy of the first messages and the entropy of the second messages each comprise one or more of: respective MPLS labels; a respective source IP address information and a respective destination IP address information; a respective transport source port; and a respective transportation destination port. at a control plane entity, establishing at least a first path and a second path through a network for communications between the control plane entity and a user plane entity, the first path and the second path being disjoint from each other, wherein the first path is designated as a primary path and the second path is designated as a warm path; generating first messages which include entropy that causes the first messages to traverse the first path, first inband metadata that includes timestamp and sequence information, control plane message information, and a flag to indicate that the first messages are sent via the primary path and carry real control plane message information; generating second messages which include entropy that causes the second messages to traverse the second path, second inband metadata that includes timestamp and sequence information, dummy control plane message information, and a flag to indicate that the second messages are sent via the warm path and carry dummy control plane message information to be ignored by the user plane entity; and sending the first messages and the second messages into the network, wherein the entropy of the first messages and the entropy of the second messages each comprise one or more of: respective MPLS labels; a respective source IP address information and a respective destination IP address information; a respective transport source port; and a respective transportation destination port.
A luminescent sheet comprising: a first base material layer; at least one of recesses and projections each having edges and formed on the first base material layer; and stress-luminescent parts (3, 4) each arranged at a location contacting with the edge, wherein at least a part of the edges comprises a stress concentrated part where stress concentrates when stress is added to the first base material layer in a predetermined direction, characterized in that the stress-luminescent part (3, 4) is configured to emit, around the edge, particularly strong light having a predetermined wavelength with a light-emitting intensity depending on external load stress added to the stress concentrated part and an assumed direction of the external load stress. a first base material layer; at least one of recesses and projections each having edges and formed on the first base material layer; and stress-luminescent parts (3, 4) each arranged at a location contacting with the edge, wherein at least a part of the edges comprises a stress concentrated part where stress concentrates when stress is added to the first base material layer in a predetermined direction, characterized in that the stress-luminescent part (3, 4) is configured to emit, around the edge, particularly strong light having a predetermined wavelength with a light-emitting intensity depending on external load stress added to the stress concentrated part and an assumed direction of the external load stress.
Guide mechanism for a door section comprising: a guide element (1, 20) with a holding device (2, 21) for connecting with the door section, and a guide, particularly a guide rail (10, 30), for connecting to a floor, and a brush element connected to the holding device, which element is provided relative to the holding device (2, 21) such that the guide element (1, 20) is supported with respect to the guide by a brush of the brush element, characterised in that the brush element is connected to the holder in such a way that the brush of the brush element extends in a direction inclined towards the horizontal. a guide element (1, 20) with a holding device (2, 21) for connecting with the door section, and a guide, particularly a guide rail (10, 30), for connecting to a floor, and a brush element connected to the holding device, which element is provided relative to the holding device (2, 21) such that the guide element (1, 20) is supported with respect to the guide by a brush of the brush element, characterised in that the brush element is connected to the holder in such a way that the brush of the brush element extends in a direction inclined towards the horizontal.
An in-vehicle control system for communicating data between at least one of an office control system and a residential control system comprising: a transceiver configured to be in communication with the office control system and the residential control system; and a memory device in communication with the transceiver wherein the memory device is configured to store a data file transmitted and/or received from the office control system and the residential control system, characterized by a processing circuit coupled to the transceiver and the memory device, wherein the data file is automatically displayed on or played audibly by the in-vehicle control system when the vehicle is pulled out of a driveway. a transceiver configured to be in communication with the office control system and the residential control system; and a memory device in communication with the transceiver wherein the memory device is configured to store a data file transmitted and/or received from the office control system and the residential control system,