mhurhangee/ep-ind-claims huggingface dataset:
A method of performing access deregistration by an access and mobility management function, AMF, serving a 3 rd generation partnership project, 3GPP, access and a non-3GPP access, the method comprising: assigning a temporary identifier to a terminal during a registration procedure over the non-3GPP access in a public land mobile network, PLMN, the assigned temporary identifier corresponding to a temporary identifier assigned during a registration procedure over the 3GPP access in the same PLMN; determining to initiate a deregistration procedure to deregister the non-3GPP access for the terminal over the 3GPP access, after assigning the temporary identifier to the terminal during the registration procedure over the non-3GPP access; and transmitting, to a session management function, SMF, based on the determination, a request for releasing a protocol data unit, PDU, session including a non-3GPP access PDU session ID, to release all PDU sessions associated with the non-3GPP access, wherein the all PDU sessions associated with the non-3GPP access are released based on the request. assigning a temporary identifier to a terminal during a registration procedure over the non-3GPP access in a public land mobile network, PLMN, the assigned temporary identifier corresponding to a temporary identifier assigned during a registration procedure over the 3GPP access in the same PLMN; determining to initiate a deregistration procedure to deregister the non-3GPP access for the terminal over the 3GPP access, after assigning the temporary identifier to the terminal during the registration procedure over the non-3GPP access; and transmitting, to a session management function, SMF, based on the determination, a request for releasing a protocol data unit, PDU, session including a non-3GPP access PDU session ID, to release all PDU sessions associated with the non-3GPP access, wherein the all PDU sessions associated with the non-3GPP access are released based on the request.
A sleep assistance device comprising: a housing; a biometric sensor for determining at least one of a heart rate, a respiratory rate, a presence of a user, or movement of a user; a processor; a memory; a microphone; and a speaker; wherein said processor is configured to detect a user's sleep state by reading signals from said biometric sensor based on at least one of a detected change in heartrate, body movement, respiration, or a user's presence; wherein said processor is configured to initiate a wind-down routine upon detecting a sleep-readiness state, the wind-down routine comprising at least one of playing relaxing sounds or playing a respiration entrainment sound; characterized in that: said processor is further configured to play noise-masking sounds upon detecting that the user has fallen asleep, the noise-masking sounds being determined by the processor to mask ambient noises detected by the microphone within a sleep space; and wherein said processor is configured to seamlessly transition between the sounds played during said wind-down routine and the noise-masking sounds. a housing; a biometric sensor for determining at least one of a heart rate, a respiratory rate, a presence of a user, or movement of a user; a processor; a memory; a microphone; and a speaker; wherein said processor is configured to detect a user's sleep state by reading signals from said biometric sensor based on at least one of a detected change in heartrate, body movement, respiration, or a user's presence; wherein said processor is configured to initiate a wind-down routine upon detecting a sleep-readiness state, the wind-down routine comprising at least one of playing relaxing sounds or playing a respiration entrainment sound; characterized in that: said processor is further configured to play noise-masking sounds upon detecting that the user has fallen asleep, the noise-masking sounds being determined by the processor to mask ambient noises detected by the microphone within a sleep space; and wherein said processor is configured to seamlessly transition between the sounds played during said wind-down routine and the noise-masking sounds. said processor is further configured to play noise-masking sounds upon detecting that the user has fallen asleep, the noise-masking sounds being determined by the processor to mask ambient noises detected by the microphone within a sleep space; and wherein said processor is configured to seamlessly transition between the sounds played during said wind-down routine and the noise-masking sounds.
A transport refrigeration unit comprising: a combustion engine system including a turbo-charger constructed and arranged to receive air in a cold state and expel the air in a compressed hot state; an evaporator; and a charge air cooler; characterised by: a defrost heat exchanger constructed and arranged to receive at least a portion of the air in the compressed hot state and expel the air in a compressed cooled state for defrosting the evaporator; and an evaporator fan constructed and arranged to flow air through the defrost heat exchanger and the evaporator. a combustion engine system including a turbo-charger constructed and arranged to receive air in a cold state and expel the air in a compressed hot state; an evaporator; and a charge air cooler; characterised by: a defrost heat exchanger constructed and arranged to receive at least a portion of the air in the compressed hot state and expel the air in a compressed cooled state for defrosting the evaporator; and an evaporator fan constructed and arranged to flow air through the defrost heat exchanger and the evaporator. a defrost heat exchanger constructed and arranged to receive at least a portion of the air in the compressed hot state and expel the air in a compressed cooled state for defrosting the evaporator; and an evaporator fan constructed and arranged to flow air through the defrost heat exchanger and the evaporator.
A heater, comprising: a ceramic body having a rod shape or tubular shape, the ceramic body comprising, in an outer peripheral surface thereof, a slit-shaped recess extending from a front end toward a rear end of the ceramic body; and a heat-generating resistor embedded inside the ceramic body, the heat-generating resistor comprising a first resistor and a second resistor which are disposed in parallel, the heat-generating resistor comprising a first region in which the first resistor and the second resistor extend, in a meandering manner, in parallel along a circumferential direction of the ceramic body between the front end and rear end of the ceramic body, and a second region adjacent to the slit-shaped recess whereby in the second region only the first resistor extends in a meandering manner. a ceramic body having a rod shape or tubular shape, the ceramic body comprising, in an outer peripheral surface thereof, a slit-shaped recess extending from a front end toward a rear end of the ceramic body; and a heat-generating resistor embedded inside the ceramic body, the heat-generating resistor comprising a first resistor and a second resistor which are disposed in parallel, the heat-generating resistor comprising a first region in which the first resistor and the second resistor extend, in a meandering manner, in parallel along a circumferential direction of the ceramic body between the front end and rear end of the ceramic body, and a second region adjacent to the slit-shaped recess whereby in the second region only the first resistor extends in a meandering manner.
Device for transferring data from or to an underwater pressure hull comprising a mass storage device on which the data can be read and/or written by an arithmetic unit inside the underwater pressure hull, designated in the following as an underwater arithmetic unit, wherein the data can be transferred between the underwater arithmetic unit and another arithmetic unit by the mass storage device, wherein the mass storage device comprises a pressure-proof, water-impermeable, air-free insulating body and is constructed in such a manner that it can be detachably connected to a connection device arranged on the outside of the underwater pressure hull, and the mass storage device comprises a mass storage component and an underwater connection element, wherein the mass storage component and the underwater connection element are connected to one another by an internal connection and the mass storage device comprises a switch component constructed in such a manner as to switchably connect the internal connection between external contacts of the underwater connection element and the contacts of the mass storage component so that a separation or connection of an electrically conductive connection between the mass storage device and the connection device can be carried out without short circuits.
An inkjet ink, comprising: a terpene phenol resin; an alkanolamine; and ethanol; and wherein a weight ratio of the terpene phenol resin to the alkanolamine (:) is 0.5: 1 to 10:1. a terpene phenol resin; an alkanolamine; and ethanol; and wherein a weight ratio of the terpene phenol resin to the alkanolamine (:) is 0.5: 1 to 10:1.
A system for stimulation and collection of seminal fluids comprising: a polymeric sleeve comprising: an elongate body that defines a first end, a second end opposite the first end, and a longitudinal central axis; a main passageway through the elongate body parallel to the central axis, wherein the main passageway extends from the first end to the second end, and the main passageway defines a first aperture on the first end and a second aperture on the second end; a first member suspended over the first aperture on the first end, wherein the first member defines a first initial passageway parallel to the main passageway, and the first member and first end define an interior volume; and characterized in that the first member is supported by at least two stanchion portions (120A, 120B, 120C) defining in part at least two first vent openings, 124B, 124C) in between them, with the polymeric sleeve having been created from a single molding of polymeric material including the first member and the stanchion portions (120A, 120B, 120C), wherein said at least two first vent openings (124A, 124B, 124C) are defined in part by the first member, are distinct from the passageways (208; 116) and fluidly couple the interior volume to atmosphere pressure. a polymeric sleeve comprising: an elongate body that defines a first end, a second end opposite the first end, and a longitudinal central axis; a main passageway through the elongate body parallel to the central axis, wherein the main passageway extends from the first end to the second end, and the main passageway defines a first aperture on the first end and a second aperture on the second end; a first member suspended over the first aperture on the first end, wherein the first member defines a first initial passageway parallel to the main passageway, and the first member and first end define an interior volume; and an elongate body that defines a first end, a second end opposite the first end, and a longitudinal central axis; a main passageway through the elongate body parallel to the central axis, wherein the main passageway extends from the first end to the second end, and the main passageway defines a first aperture on the first end and a second aperture on the second end; a first member suspended over the first aperture on the first end, wherein the first member defines a first initial passageway parallel to the main passageway, and the first member and first end define an interior volume; and characterized in that the first member is supported by at least two stanchion portions (120A, 120B, 120C) defining in part at least two first vent openings, 124B, 124C) in between them, with the polymeric sleeve having been created from a single molding of polymeric material including the first member and the stanchion portions (120A, 120B, 120C),
A method for producing a polyamide, wherein the method solid-phase polymerizes a granular raw material at a polymerization temperature of the granular material that is equal to or lower than the melting points of the raw material and the polyamide, in a reaction vessel equipped with a stirrer and wherein the inner wall of the reaction vessel is set at a temperature lower than the polymerization temperature of the granular raw material so as to fall within a temperature region lower than the temperature of the granular material by 100°C to 10°C in which the polymerization little proceeds, by heating the granular raw material with a stirring heat to the polymerization temperature of the granular raw material higher than the temperature of the inner wall of the reaction vessel, while the temperature of the inner wall of the reaction vessel is being maintained to be lower than the polymerization temperature of the granular raw material and within a temperature region lower than the temperature of the granular material by 100°C to 10°C in which the polymerization little proceeds, wherein the control of the temperature of the inner wall of the vessel in the reaction vessel is carried out by a known method using for example a heater, a steam and a heating medium jacket.
Method for the production of sub-micrometric particles for the in vivo treatment of tumour cells, comprising the steps of: A. mechanochemical treatment of homogeneous or heterogeneous, powdery, magnetic materials in a controlled atmosphere, and in the presence of a liquid phase of not more than 5% by volume, until a consistent mass with at least 80% by volume of magnetic aggregates mainly with dimensions smaller than 500 nm is obtained, said aggregates being formed by magnetic nanocrystals mainly with dimensions smaller than 100 nm; B. dispersion of the magnetic aggregates in a fluid; C. dimensional selection and distribution of the magnetic aggregates present in the said fluid depending on their Curie temperature within a predefined variation range(T min - T max); D. functionalization by coating the aggregates with substances designed to generate a mutual attraction between the tumour cells and the nanocrystals of the magnetic aggregates. A. mechanochemical treatment of homogeneous or heterogeneous, powdery, magnetic materials in a controlled atmosphere, and in the presence of a liquid phase of not more than 5% by volume, until a consistent mass with at least 80% by volume of magnetic aggregates mainly with dimensions smaller than 500 nm is obtained, said aggregates being formed by magnetic nanocrystals mainly with dimensions smaller than 100 nm; B. dispersion of the magnetic aggregates in a fluid; C. dimensional selection and distribution of the magnetic aggregates present in the said fluid depending on their Curie temperature within a predefined variation range(T min - T max); D. functionalization by coating the aggregates with substances designed to generate a mutual attraction between the tumour cells and the nanocrystals of the magnetic aggregates.
Method for predicting a development of the profile depth for a vehicle tyre, comprising the following steps: a) providing a multiplicity of wear curves (4, 5, 6, 7) in a data memory, wherein the wear curves (4, 5, 6, 7) are determined for different parameters by measurements of the profile depth in dependence on the mileage or kilometrage of a vehicle tyre, b) measuring at least one profile depth on the vehicle tyre after a particular mileage or kilometrage, c) comparing the measured profile depth with the wear curves (4, 5, 6, 7) provided, characterized in that d) assigning a wear curve to the vehicle tyre, wherein the assignment of the wear curve takes place using the measured profile depth and the mileage or kilometrage, e) predicting the further development of the profile depth for the vehicle tyre using the assigned wear curve. a) providing a multiplicity of wear curves (4, 5, 6, 7) in a data memory, wherein the wear curves (4, 5, 6, 7) are determined for different parameters by measurements of the profile depth in dependence on the mileage or kilometrage of a vehicle tyre, b) measuring at least one profile depth on the vehicle tyre after a particular mileage or kilometrage, c) comparing the measured profile depth with the wear curves (4, 5, 6, 7) provided, characterized in that d) assigning a wear curve to the vehicle tyre, wherein the assignment of the wear curve takes place using the measured profile depth and the mileage or kilometrage, e) predicting the further development of the profile depth for the vehicle tyre using the assigned wear curve.
A stationary dialysis system comprising at least two separate water preparation units (2, 3), which can be fluidically connected and/or separated to/from at least two separate ring lines (6, 7) according to selectable supply variants, characterized in that a hydraulic circuit of a plurality of fixed, unchangeable hydraulic circuits representing the supply variants is inserted in a circuit receiving means of the dialysis system for fluidically connecting and/or separating of the water preparation units (2, 3) to/from the ring lines (6, 7). at least two separate water preparation units (2, 3), which can be fluidically connected and/or separated to/from at least two separate ring lines (6, 7) according to selectable supply variants, characterized in that a hydraulic circuit of a plurality of fixed, unchangeable hydraulic circuits representing the supply variants is inserted in a circuit receiving means of the dialysis system for fluidically connecting and/or separating of the water preparation units (2, 3) to/from the ring lines (6, 7).
A detection system comprising: a smoke detector; and at least one of a control panel and a server, wherein the smoke detector comprises a processor configured to determine whether a current condition indicates a need to trigger an alarm, wherein the smoke detector is configured to measure a baseline, and wherein the at least one of the control panel and the server are/is configured to: receive and compile a detector baseline signal; determine an indoor air quality based on a rate of a baseline drift of the smoke detector; and establish at least one indoor air quality trend, characterized in that: the at least one of the control panel and/or the server are/is operably connected to an HVAC system, the at least one of the control panel and the server being configured to execute one or more HVAC system controls in response to at least one indoor air quality trend. a smoke detector; and at least one of a control panel and a server, wherein the smoke detector comprises a processor configured to determine whether a current condition indicates a need to trigger an alarm, wherein the smoke detector is configured to measure a baseline, and wherein the at least one of the control panel and the server are/is configured to: receive and compile a detector baseline signal; determine an indoor air quality based on a rate of a baseline drift of the smoke detector; and establish at least one indoor air quality trend, receive and compile a detector baseline signal; determine an indoor air quality based on a rate of a baseline drift of the smoke detector; and establish at least one indoor air quality trend, characterized in that: the at least one of the control panel and/or the server are/is operably connected to an HVAC system, the at least one of the control panel and the server being configured to execute one or more HVAC system controls in response to at least one indoor air quality trend.
A thermal cycler system (300, 400) comprising: a sample block comprising two or more block segments (410a-410c), the sample block having a first surface and an opposing second surface, wherein the first surface is configured for receiving a plurality of reaction vessels; and two or more thermal modules, each thermal module comprising, a thermoelectric device operably coupled to the second surface of the sample block, and a thermal control unit (420a-420c) comprising a computer processing unit, an electrical current source and an electrical interface portion configured to connect the electrical current source to the thermoelectric device by way of an electrical cable wherein the thermal control unit (420a-420c) is located away from the thermoelectric device. a sample block comprising two or more block segments (410a-410c), the sample block having a first surface and an opposing second surface, wherein the first surface is configured for receiving a plurality of reaction vessels; and two or more thermal modules, each thermal module comprising, a thermoelectric device operably coupled to the second surface of the sample block, and a thermal control unit (420a-420c) comprising a computer processing unit, an electrical current source and an electrical interface portion configured to connect the electrical current source to the thermoelectric device by way of an electrical cable wherein the thermal control unit (420a-420c) is located away from the thermoelectric device.
Closure for ducts or receptacles for pressurized fluids, comprising: - an annular supporting structure, to be fitted to a free end of a section of a tubular body, which defines an opening for accessing the duct or receptacle, and, - a hatch, connected in an articulated manner to said supporting structure, with the ability to move between a closed position and an open position; wherein said supporting structure comprises a sealing surface with a direction of extension, characterized in that it comprises a sealing element that can be positioned in the opening, said sealing element comprising an expansible portion with an inner surface facing the duct and an outer surface facing the sealing surface, said expansible portion being able to expand as a result of the pressure of the fluid that acts on the inner surface so that the outer surface is placed in contact with the sealing surface. - an annular supporting structure, to be fitted to a free end of a section of a tubular body, which defines an opening for accessing the duct or receptacle, and, - a hatch, connected in an articulated manner to said supporting structure, with the ability to move between a closed position and an open position;