mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment, UE, which is registered in both of a 3rd generation partnership project, 3GPP, access and a non-3GPP access in a same Public Land Mobile Network, PLMN, the method comprising: receiving, from an Access and Mobility Management Function, AMF, node, a paging message while in an idle state in both of the 3GPP access and the non-3GPP access, wherein the paging message includes access type information informing that the paging message is originated due to a protocol data unit, PDU, session from the non-3GPP access, initiating a UE-triggered service request procedure, by transmitting a service request message including a list of allowed PDU sessions, upon receiving the paging message, and characterised by: wherein based on that there is no PDU session to be reactivated over the 3GPP access, the service request message includes an empty list of the allowed PDU sessions, wherein all bits of PDU session identifiers, PSIs, in the empty list of the allowed PDU sessions are coded as zero, 0. receiving, from an Access and Mobility Management Function, AMF, node, a paging message while in an idle state in both of the 3GPP access and the non-3GPP access, wherein the paging message includes access type information informing that the paging message is originated due to a protocol data unit, PDU, session from the non-3GPP access, initiating a UE-triggered service request procedure, by transmitting a service request message including a list of allowed PDU sessions, upon receiving the paging message, and characterised by: wherein based on that there is no PDU session to be reactivated over the 3GPP access, the service request message includes an empty list of the allowed PDU sessions, wherein all bits of PDU session identifiers, PSIs, in the empty list of the allowed PDU sessions are coded as zero, 0. wherein based on that there is no PDU session to be reactivated over the 3GPP access, the service request message includes an empty list of the allowed PDU sessions, wherein all bits of PDU session identifiers, PSIs, in the empty list of the allowed PDU sessions are coded as zero, 0.
A composition having improved flame resistance comprising: a cross-linked polycarbonate, the cross-linked polycarbonate derived from a non-cross-linked polycarbonate comprising 0.5 mol% to 5 mol% endcap groups that are derived from a monohydroxybenzophenone, and wherein all other endcap groups are derived from an end capping agent selected from the group consisting of phenol and C 1 -C 22 alkyl-substituted phenols; and a flame retardant; wherein the composition does not comprise an impact modifier; wherein a plaque formed from the composition achieves a UL94 5VA rating at a thickness of 1.5 mm ± 10% or less. a cross-linked polycarbonate, the cross-linked polycarbonate derived from a non-cross-linked polycarbonate comprising 0.5 mol% to 5 mol% endcap groups that are derived from a monohydroxybenzophenone, and wherein all other endcap groups are derived from an end capping agent selected from the group consisting of phenol and C 1 -C 22 alkyl-substituted phenols; and a flame retardant; wherein the composition does not comprise an impact modifier; wherein a plaque formed from the composition achieves a UL94 5VA rating at a thickness of 1.5 mm ± 10% or less.
An aircraft, comprising: a nacelle configured as a housing for an engine and disposed at a fixed location relative a wing member, including a forward portion and an aft portion; a proprotor housing coupled to the nacelle, the proprotor housing configured to selectively rotate between a horizontal orientation and a non-horizontal orientation (52, 54); and a plurality of doors pivotably coupled to the forward portion of the nacelle; wherein the plurality of doors is configured to be in a closed position when the proprotor housing is in a horizontal orientation to an open position when the proprotor housing is in a non-horizontal orientation (52, 54). a nacelle configured as a housing for an engine and disposed at a fixed location relative a wing member, including a forward portion and an aft portion; a proprotor housing coupled to the nacelle, the proprotor housing configured to selectively rotate between a horizontal orientation and a non-horizontal orientation (52, 54); and a plurality of doors pivotably coupled to the forward portion of the nacelle; wherein the plurality of doors is configured to be in a closed position when the proprotor housing is in a horizontal orientation to an open position when the proprotor housing is in a non-horizontal orientation (52, 54).
Method for adapting a handover threshold for handover between a first frequency band and a second frequency band in a multi-band communication arrangement to communication conditions in a communication cell, the method comprising: determining a cell throughput of the communication cell in the first frequency band and the second frequency band; and amending a handover offset of the handover threshold in dependency on the cell throughput; characterized in that a feedback loop is used to regulate the adaptation of the handover threshold; the method further comprising: inputting outcome of handover threshold evaluation for each of the first frequency band and the second frequency band; inputting overall throughput of the communication cell; inputting service loading of the first frequency band and the second frequency band; constituting the feedback loop in a shared coverage area between the first frequency band and the second frequency band based on at least one of the inputs; and regulating an offset to each handover threshold such that the overall multi-layer cell throughput is maximized. determining a cell throughput of the communication cell in the first frequency band and the second frequency band; and amending a handover offset of the handover threshold in dependency on the cell throughput; inputting outcome of handover threshold evaluation for each of the first frequency band and the second frequency band; inputting overall throughput of the communication cell; inputting service loading of the first frequency band and the second frequency band; constituting the feedback loop in a shared coverage area between the first frequency band and the second frequency band based on at least one of the inputs; and regulating an offset to each handover threshold such that the overall multi-layer cell throughput is maximized.
A peritoneal dialysis machine, comprising a source of peritoneal dialysis solution, a peritoneal dialysis cycler for routing and delivering the PD solution to a patient in need of peritoneal dialysis, a USB data communications interface including a USB port on the machine that accepts a USB flash drive, and a USB interface control system for managing the uploading and downloading peritoneal dialysis related data, wherein the data is in the form of a patient profile and prescription record provided by the user, the record being stored on the user's USB flash drive and uploaded to the machine via the USB interface, and a controller for directing the sequence of operations on the PD cycler to carry out peritoneal dialysis on the patient according to the uploaded patient profile and prescription record.
An adhesive composition comprising: a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm), measured using differential scanning calorimetry, of 35°C or higher and 40 °C or less, wherein the polymer is a copolymer of a monofunctional polysiloxane and two types of monomers, the two types of monomers being represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30, and wherein the polymer having a melting temperature of 35°C or higher and 40 °C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 40 °C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the two types of monomers in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight. a (meth)acrylate-based resin; and a polymer having a melting temperature (Tm), measured using differential scanning calorimetry, of 35°C or higher and 40 °C or less, wherein the polymer is a copolymer of a monofunctional polysiloxane and two types of monomers, the two types of monomers being represented by the following Chemical Formula 1: in Chemical Formula 1, X is N or O; R1 is hydrogen or a methyl group; and n is an integer of 10 to 30, and wherein the polymer having a melting temperature of 35°C or higher and 40 °C or less comprises, based on 100 parts by weight of the polymer having a melting temperature of 35°C or higher and 40 °C or less, the monofunctional polysiloxane in greater than or equal to 10 parts by weight and less than or equal to 40 parts by weight, and the two types of monomers in greater than or equal to 60 parts by weight and less than or equal to 90 parts by weight.
Electrical circuit, comprising - an energy converter, - an energy store, - a first connection and a second connection, wherein - the energy converter is electrically coupled to the first and the second connection, - the energy store is electrically coupled to the first and the second connection, - the energy converter is suitable and intended for charging the energy store at discrete time periods, - the energy converter comprises a solar cell, and - the energy store comprises a solid-state accumulator, further comprising a varistor that is connected in parallel with the energy store and in parallel with the energy converter, and characterized in that the electrical circuit is configured in such a way as to provide a continuous output of energy at both connections of the solid-state accumulator. - an energy converter, - an energy store, - a first connection and a second connection, - the energy converter is electrically coupled to the first and the second connection, - the energy store is electrically coupled to the first and the second connection, - the energy converter is suitable and intended for charging the energy store at discrete time periods, - the energy converter comprises a solar cell, and - the energy store comprises a solid-state accumulator,
Shaft arrangement having a shaft covering frame and a shaft tube made of a synthetic material, wherein the shaft covering frame has a tubular insertion section, which can be inserted into a first tube opening of the shaft tube, characterised in that at least one clamping means (33, 35) is arranged on the insertion section, which clamping means elastically enlarges an inner cross-section of the shaft tube in the region of the clamping means (33, 35), and elastically reduces this in the region of the retaining projection (26, 27), when the shaft arrangement is in the assembled state, wherein the retaining projection is moulded into an inner surface of the shaft tube and in the assembled state is connected positively to the shaft tube by plastic deformation of the shaft tube.
A particle mixture comprising particles of a first glass frit and particles of a second glass frit; wherein the first glass frit consists of: a) > 10 to ≤ 25 mol.% BaO; b) ≥ 0 to ≤ 10 mol.% Bi 2 O 3; c) ≥ 15 to ≤ 35 mol.% ZnO; d) ≥ 15 to ≤ 35 mol.% B 2 O 3; e) > 10 to ≤ 40 mol.% SiO 2; f) > 0.5 to ≤ 4 mol.% Al 2 O 3; g) > 1 to ≤ 15 mol.% transition metal oxide; h) > 0.5 to ≤ 15 mol.% alkali metal oxide; i) ≥ 0 to ≤ 10 mol.% of further components, which may optionally be selected from the group consisting of alkali earth metal oxides, rare earth oxides, fluorine and sulphur; and j) incidental impurities; and wherein the second glass frit consists of: a) ≥ 35 to ≤ 55 mol.% Bi 2 O 3; b) ≥ 2 to ≤ 20 mol.% ZnO; c) ≥ 10 to ≤ 40 mol.% B 2 O 3; d) ≥ 5 to ≤ 11 mol.% SiO 2; e) ≥ 0 to ≤ 15 mol.% Al 2 O 3; f) ≥ 0 to ≤ 7 mol.% CuO; g) > 0 to ≤ 15 mol.% alkali metal oxide; h) ≥ 0 to ≤ 3 mol.% BaO; i) ≥ 0 to ≤ 10 wt.% of further components, which may optionally be selected from the group consisting of alkali earth metal oxides, transition metal oxides, fluorine and sulphur; and j) incidental impurities; and wherein the particle mixture comprises ≥ 25 to ≤ 75 wt.% particles of the first glass frit; and ≥ 25 to ≤ 75 wt.% particles of the second glass frit. a) > 10 to ≤ 25 mol.% BaO; b) ≥ 0 to ≤ 10 mol.% Bi 2 O 3; c) ≥ 15 to ≤ 35 mol.% ZnO; d) ≥ 15 to ≤ 35 mol.% B 2 O 3; e) > 10 to ≤ 40 mol.% SiO 2; f) > 0.5 to ≤ 4 mol.% Al 2 O 3; g) > 1 to ≤ 15 mol.% transition metal oxide; h) > 0.5 to ≤ 15 mol.% alkali metal oxide; i) ≥ 0 to ≤ 10 mol.% of further components, which may optionally be selected from the group consisting of alkali earth metal oxides, rare earth oxides, fluorine and sulphur; and j) incidental impurities; a) ≥ 35 to ≤ 55 mol.% Bi 2 O 3; b) ≥ 2 to ≤ 20 mol.% ZnO; c) ≥ 10 to ≤ 40 mol.% B 2 O 3; d) ≥ 5 to ≤ 11 mol.% SiO 2; e) ≥ 0 to ≤ 15 mol.% Al 2 O 3; f) ≥ 0 to ≤ 7 mol.% CuO; g) > 0 to ≤ 15 mol.% alkali metal oxide; h) ≥ 0 to ≤ 3 mol.% BaO; i) ≥ 0 to ≤ 10 wt.% of further components, which may optionally be selected from the group consisting of alkali earth metal oxides, transition metal oxides, fluorine and sulphur; and j) incidental impurities;
A device for chromatic confocal measurement of a local height and/or orientation of a surface of a sample, the device comprising: - a light source configured to generate a polychromatic light beam, - a projection objective lens comprising an axial chromatic lens configured to apply the light beam to the surface of the sample, the light beam having a defined propagation axis, - an optical sensor, configured to receive a reflected light beam from the sample surface and measure a total energy of said reflected light beam received during an integration interval, and - a unit for processing the signal from the optical sensor, configured to determine the height and/or local orientation of the surface of the sample; the measuring device being characterised in that it further comprises a scanning system, coupled to the projection objective lens and configured to move the axis of propagation of the light beam relative to the projection objective lens along a predetermined path during the integration interval of the optical sensor, so that the total energy measured by the optical sensor corresponds to a dynamic spatial average of the total energy of the light beam reflected by the surface of the sample along the predetermined path. - a light source configured to generate a polychromatic light beam, - a projection objective lens comprising an axial chromatic lens configured to apply the light beam to the surface of the sample, the light beam having a defined propagation axis, - an optical sensor, configured to receive a reflected light beam from the sample surface and measure a total energy of said reflected light beam received during an integration interval, and - a unit for processing the signal from the optical sensor, configured to determine the height and/or local orientation of the surface of the sample; the measuring device being characterised in that it further comprises a scanning system, coupled to the projection objective lens and configured to move the axis of propagation of the light beam relative to the projection objective lens along a predetermined path during the integration interval of the optical sensor, so that the total energy measured by the optical sensor corresponds to a dynamic spatial average of the total energy of the light beam reflected by the surface of the sample along the predetermined path.
A gastrostomy tubing system comprising: a gastrostomy tube (202, 302a-b, 402) comprising a distal end and a proximal end, the distal end is configured to be positioned in a stomach of a subject and the proximal end is configured to extend outside the subject's body; and a retention structure (204, 304, 404) connected to said distal end of said tube and configured to secure the tube to an inner wall of the stomach when the distal end is inside the stomach; characterized in that: said retention structure comprises three or more reversibly assembled retention elements extending radially outwardly around said distal end of said gastrostomy tube, wherein said retention structure is configured to disassemble into said three or more reversibly assembled retention elements upon external manipulation, to dismantle from said tube and facilitate removal of the tube distal end from the stomach. a gastrostomy tube (202, 302a-b, 402) comprising a distal end and a proximal end, the distal end is configured to be positioned in a stomach of a subject and the proximal end is configured to extend outside the subject's body; and a retention structure (204, 304, 404) connected to said distal end of said tube and configured to secure the tube to an inner wall of the stomach when the distal end is inside the stomach; characterized in that: said retention structure comprises three or more reversibly assembled retention elements extending radially outwardly around said distal end of said gastrostomy tube, wherein said retention structure is configured to disassemble into said three or more reversibly assembled retention elements upon external manipulation, to dismantle from said tube and facilitate removal of the tube distal end from the stomach.
A water-soluble film comprising: a polyamine backbone-containing compound; and a water-soluble resin, the polyamine backbone-containing compound having a structure in which at least one amino group is modified with at least one group selected from the group consisting of (poly)alkylene glycol groups, carboxylic acid (salt) groups, hydrophobic groups, and sulfonic acid (salt) groups. a polyamine backbone-containing compound; and a water-soluble resin, the polyamine backbone-containing compound having a structure in which at least one amino group is modified with at least one group selected from the group consisting of (poly)alkylene glycol groups, carboxylic acid (salt) groups, hydrophobic groups, and sulfonic acid (salt) groups.
Sensor device for measuring at least one intrinsic property of a fluid which flows in a duct, comprising a duct element through which a fluid can flow, said duct element having an inlet and having an outlet and having a duct element wall which has an inner wall connecting the inlet and the outlet, and an outer side, and having an insertion opening which is arranged in the duct element wall, wherein the duct element has areas with electrical conductivity, wherein the sensor device also comprises at least one sensor with a sensor housing and a sensor element which is arranged in the sensor housing, wherein the sensor housing can be introduced into the duct element through the insertion opening which is arranged in the duct element wall, and wherein the sensor element can be subjected to the flowing fluid, wherein the sensor element is suitable for sensing at least one property of the flowing fluid, wherein the sensor housing of the sensor has a flow duct at a sensor end which projects into the interior of the duct element, which flow duct is subjected to the flowing medium through an opening pointing in the flow direction in the duct element, and wherein the sensor element is arranged on a carrier substrate which is arranged in the sensor housing, and said sensor element projects into the flow duct, wherein the areas with electrical conductivity can be connected to a fixed electrical potential in such a way that the areas are at a fixed electrical potential, characterized in that the entire duct element wall of the duct element is formed completely from electrically conductive plastic, wherein at least one electrically conductive contact-forming element for making electrical contact with the duct element wall is arranged on the outer side of the duct element or in the wall of the duct element wall, wherein the at least one contact-forming element can be connected to a fixed electrical potential outside the duct element, in particular to the earth potential, in such a way that the entire duct element wall is at the fixed electrical potential (POT, GND).
A computer-implemented method for image registration, the method being performed by an image registration entity, the method comprising: obtaining a matching between a first set of objects (320P, 330P, 340P, 350P) in a first image of a scene and a second set of objects (320C, 330C, 340C, 350C) in a second image of the scene, the first set of objects (320P, 330P, 340P, 350P) and the second set of objects (320C, 330C, 340C, 350C) being extracted using visual object detection in the first image and in the second image, respectively; obtaining a first set of key-points as extracted from the first image and a second set of key-points as extracted from the second image; performing image registration by matching the first set of key-points to the second set of key-points, wherein those of the first set of key-points that are mapped to objects in the first set of objects (320P, 330P, 340P, 350P) and that have matching objects in the second set of objects (320C, 330C, 340C, 350C) are restricted to only be matched to those of the second set of key-points that are mapped to any of the matching objects in the second set of objects (320C, 330C, 340C, 350C), and any of those of the first set of key-points that are not mapped to any object in the first set of objects (320P, 330P, 340P, 350P) are restricted to only be matched to those of the second set of key-points that are not mapped to any of the matching objects in the second set of objects (320C, 330C, 340C, 350C); and applying the matching between key-points resulting from the image registration when constructing an image representation of the scene. obtaining a matching between a first set of objects (320P, 330P, 340P, 350P) in a first image of a scene and a second set of objects (320C, 330C, 340C, 350C) in a second image of the scene, the first set of objects (320P, 330P, 340P, 350P) and the second set of objects (320C, 330C, 340C, 350C) being extracted using visual object detection in the first image and in the second image, respectively; obtaining a first set of key-points as extracted from the first image and a second set of key-points as extracted from the second image; performing image registration by matching the first set of key-points to the second set of key-points, wherein those of the first set of key-points that are mapped to objects in the first set of objects (320P, 330P, 340P, 350P) and that have matching objects in the second set of objects (320C, 330C, 340C, 350C) are restricted to only be matched to those of the second set of key-points that are mapped to any of the matching objects in the second set of objects (320C, 330C, 340C, 350C), and any of those of the first set of key-points that are not mapped to any object in the first set of objects (320P, 330P, 340P, 350P) are restricted to only be matched to those of the second set of key-points that are not mapped to any of the matching objects in the second set of objects (320C, 330C, 340C, 350C); and applying the matching between key-points resulting from the image registration when constructing an image representation of the scene.
Friction ring for a multi-pin synchronous clutch for connecting a shaft to a rotary member which is mounted rotatably on the shaft, the friction ring having a friction ring body which defines a longitudinal axis and can be coupled to the shaft or to the rotary member in a rotational direction, the friction ring body having a friction ring cone face on a circumferential section, which friction ring cone face is configured to pass into frictional engagement with a cone face of a further component, the friction ring cone face being oriented at a cone face angle in relation to the longitudinal axis, the friction ring having at least one axial fluid guide channel (34; 34'), characterized in that the fluid guide channel (34, 34') has a direction of extent which is oriented in relation to the longitudinal axis at a fluid guide channel angle which is oriented in the opposite direction to the cone face angle.