mhurhangee/patent-ind-claim-en huggingface dataset:
A breathing mask (200, 200', 200"), comprising: a frame (210, 210"); a forehead support member , which is pivotally connected to the frame (210, 210") to allow the forehead support member to swing toward the forehead of a patient or away from the forehead of the patient; and an adjusting member (220, 220', 220"), which is rotatably connected to the frame (210, 210"); wherein the frame comprises a gas transfer interface configured for supply of breathable gas, wherein the forehead support member is connected to the gas transfer interface , wherein the forehead support member is driven to swing by means of the rotation of the adjusting member (220, 220', 220"), and wherein the forehead support member has a first connecting part and the frame (210, 210") has a second connecting part , a gas flow passage configured to allow breathable gas to flow through the gas transfer interface is arranged in the first connecting part , the first connecting part and the second connecting part are fitted with each other to form a ball and socket connection structure, and the forehead support member and the frame (210, 210") are respectively provided with a limit part fitted with each other to limit the swing direction of the forehead support member . a frame (210, 210"); a forehead support member , which is pivotally connected to the frame (210, 210") to allow the forehead support member to swing toward the forehead of a patient or away from the forehead of the patient; and an adjusting member (220, 220', 220"), which is rotatably connected to the frame (210, 210"); wherein the frame comprises a gas transfer interface configured for supply of breathable gas, wherein the forehead support member is connected to the gas transfer interface , wherein the forehead support member is driven to swing by means of the rotation of the adjusting member (220, 220', 220"), and wherein the forehead support member has a first connecting part and the frame (210, 210") has a second connecting part , a gas flow passage configured to allow breathable gas to flow through the gas transfer interface is arranged in the first connecting part , the first connecting part and the second connecting part are fitted with each other to form a ball and socket connection structure, and the forehead support member and the frame (210, 210") are respectively provided with a limit part fitted with each other to limit the swing direction of the forehead support member .
A method for online certificate enrollment by a mobile network access device unknown or unregistered on a service provider network and requesting network access to the service provider network, comprising: receiving , by the mobile network access device , a certificate authority certificate for access to the service provider network; and then sending , by the mobile network access device, a certificate signing request to the service provider network server , wherein the signing request includes a network access standard designation, comprising a value that conveys the standard under which communication between the mobile network access device and the service provider network is arranged to be conducted, and the mobile network access device receives a signed access certificate that includes the network access standard designation. receiving , by the mobile network access device , a certificate authority certificate for access to the service provider network; and then sending , by the mobile network access device, a certificate signing request to the service provider network server , wherein the signing request includes a network access standard designation, comprising a value that conveys the standard under which communication between the mobile network access device and the service provider network is arranged to be conducted, and the mobile network access device receives a signed access certificate that includes the network access standard designation.
A hermaphroditic electrical connector, comprising: an insulating body comprising at least one installation wall and a plurality of openings on the installation wall, the body being symmetrical about a longitudinal axis; wherein the body comprises a rectangular base , two installation walls coupled to two opposing sides of the base and inclined from the base, and two connecting walls coupled to the other two opposing sides of the base and the two installation walls to form a recess on the base; wherein the installation walls have an inner surface and an outer surface; and a plurality of conductive contactors , each of the plurality of contactors having the same shape and being coupled to the body at the plurality of openings, each comprising at least a pair of a spring portion and a receiving portion, such that: at least the spring portion is configured to detachably connect to the receiving portion of a duplicate electrical connector moving towards the inner surface of the installation wall, while the receiving portion within the pair is configured to detachably connect to the spring portion of a further duplicate hermaphroditic electrical connector moving towards the outer surface of the installation wall opposite to the inner surface. an insulating body comprising at least one installation wall and a plurality of openings on the installation wall, the body being symmetrical about a longitudinal axis; wherein the body comprises a rectangular base , two installation walls coupled to two opposing sides of the base and inclined from the base, and two connecting walls coupled to the other two opposing sides of the base and the two installation walls to form a recess on the base; wherein the installation walls have an inner surface and an outer surface; and a plurality of conductive contactors , each of the plurality of contactors having the same shape and being coupled to the body at the plurality of openings, each comprising at least a pair of a spring portion and a receiving portion, such that: at least the spring portion is configured to detachably connect to the receiving portion of a duplicate electrical connector moving towards the inner surface of the installation wall, while the receiving portion within the pair is configured to detachably connect to the spring portion of a further duplicate hermaphroditic electrical connector moving towards the outer surface of the installation wall opposite to the inner surface.
An all-solid secondary battery comprising: a cathode layer ; an anode layer ; and a solid electrolyte layer between the cathode layer and the anode layer , wherein the cathode layer comprises: a positive electrode current collector ; and a positive active material layer on a side or opposite sides of the positive electrode current collector , the anode layer comprises a negative electrode current collector and a first negative active material layer on the negative electrode current collector , and a flame retardant inactive member is on a side of the cathode layer , wherein the flame retardant inactive member contains a matrix and a filler and the matrix contains a fibrous substrate and a fibrous reinforcing agent. a cathode layer ; an anode layer ; and a solid electrolyte layer between the cathode layer and the anode layer , wherein the cathode layer comprises: a positive electrode current collector ; and a positive active material layer on a side or opposite sides of the positive electrode current collector , the anode layer comprises a negative electrode current collector and a first negative active material layer on the negative electrode current collector , and a flame retardant inactive member is on a side of the cathode layer ,
Induction hob comprising: - a hob plate ; - one or more induction coil arranged below the hob plate in order to form at least one heating zone at the hob plate ; - one or more pot detection sensors ; and - an evaluation unit for evaluating signals received from the pot detection sensor ; wherein - the pot detection sensor is a strip-shaped sensor extending at least partially along a dedicated area of the hob plate and - the evaluation unit is adapted to determine information regarding the coverage of the pot detection sensor , characterized in that at least two adjacent induction coils have a triangular shape in each case, wherein each of said induction coils includes at least three coils , wherein the at least three coils are circular or wherein one of the at least three coils is circular while the other two coils are triangular. - a hob plate ; - one or more induction coil arranged below the hob plate in order to form at least one heating zone at the hob plate ; - one or more pot detection sensors ; and - an evaluation unit for evaluating signals received from the pot detection sensor ; wherein - the pot detection sensor is a strip-shaped sensor extending at least partially along a dedicated area of the hob plate and - the evaluation unit is adapted to determine information regarding the coverage of the pot detection sensor , characterized in that at least two adjacent induction coils have a triangular shape in each case, wherein each of said induction coils includes at least three coils , wherein the at least three coils are circular or wherein one of the at least three coils is circular while the other two coils are triangular.
Segmentation method of an image, the method being computer-implemented and comprising the following steps: selecting pixels of said image; (i) evaluating a curvature at each of said pixels, a domain of values of the curvature being discretized into a finite number of values, and said curvature being evaluated in said discretized domain; (ii) defining a topographic relief based on said image, an altitude of each of said pixels corresponding to said curvature evaluated in step (i); (iii) calculating a watershed of said topographic relief defined in step (ii) to delimitate catchment basins; (iv) defining a partition of said pixels based on said watershed calculated in step (iii); (v) defining a segmentation of said image into one or more groups of pixels based on said partition defined in step (iv). selecting pixels of said image; (i) evaluating a curvature at each of said pixels, a domain of values of the curvature being discretized into a finite number of values, and said curvature being evaluated in said discretized domain; (ii) defining a topographic relief based on said image, an altitude of each of said pixels corresponding to said curvature evaluated in step (i); (iii) calculating a watershed of said topographic relief defined in step (ii) to delimitate catchment basins; (iv) defining a partition of said pixels based on said watershed calculated in step (iii); (v) defining a segmentation of said image into one or more groups of pixels based on said partition defined in step (iv).
A use of a ligand L 1 as an ancillary ligand in a phosphorescent metal complex compound, the ligand L 1 having the formula: wherein R 1 , R 2 , R 3 , and R 4 are independently selected from group consisting of alkyl, cycloalkyl, aryl, and heteroaryl; wherein at least one of R 1 , R 2 , R 3 , and R 4 has at least two C; wherein R 5 is selected from group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein the ligand L 1 is coordinated to a metal M having an atomic number greater than 40; and wherein two adjacent substituents are optionally joined to form into a ring. wherein R 1 , R 2 , R 3 , and R 4 are independently selected from group consisting of alkyl, cycloalkyl, aryl, and heteroaryl; wherein at least one of R 1 , R 2 , R 3 , and R 4 has at least two C; wherein R 5 is selected from group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein the ligand L 1 is coordinated to a metal M having an atomic number greater than 40; and wherein two adjacent substituents are optionally joined to form into a ring.
Method for lining the inner surface of a hollow body with a molded body pressed from powdered material, in which method the powdered material which is provided with a binder comprises iron powder in addition to magnetic powder particles and is poured into and pressed in the pressing space of a die , wherein - a 2-phase pressing is carried out between a lower punch and an upper punch by pre-compressing the magnetic powder particles together with the binder in a first step, pre-compressing the iron powder together with the binder in a further step and pressing the molded body by carrying out a final compression of the pre-compressed parts in a subsequent step, - before or after the pressing carried out in this manner, the hollow body , when the molded body is located in the die , is positioned over the die with respect to an axial projection such that the inner surface of the hollow body surrounds the pressing space concentrically and circumferentially, wherein the inner contour of the hollow body and the outer contour of the pressing space are brought into alignment with one another, - the pressed molded body is then pushed smoothly and under sliding friction into the cavity by means of the lower punch and - the pressed molded body is non-positively fixed on the inner surface by expanding, for which purpose the expansion is influenced by the pressing density which is selected depending on the size of the powder particles, the proportion of epoxy resin, the proportion of binder, the proportion of lubricant or a combination of at least two of these components. - a 2-phase pressing is carried out between a lower punch and an upper punch by pre-compressing the magnetic powder particles together with the binder in a first step, pre-compressing the iron powder together with the binder in a further step and pressing the molded body by carrying out a final compression of the pre-compressed parts in a subsequent step, - before or after the pressing carried out in this manner, the hollow body , when the molded body is located in the die , is positioned over the die with respect to an axial projection such that the inner surface of the hollow body surrounds the pressing space concentrically and circumferentially, wherein the inner contour of the hollow body and the outer contour of the pressing space are brought into alignment with one another, - the pressed molded body is then pushed smoothly and under sliding friction into the cavity by means of the lower punch and - the pressed molded body is non-positively fixed on the inner surface by expanding, for which purpose the expansion is influenced by the pressing density which is selected depending on the size of the powder particles, the proportion of epoxy resin, the proportion of binder, the proportion of lubricant or a combination of at least two of these components.
A method for detecting and quantifying the level of 5-hydroxymethylcytosine (5-hmc) in a cell-free DNA molecule of a subject using an imaging method, the method comprising: associating a label with the 5-hydroxylmethylcytosine, wherein the label comprises a fluorescent label, attaching to the DNA molecule an additional labelling agent distinct of the 5-hmc specific label, wherein the additional labelling agent is a non-specific fluorescent label for determining overall DNA fluorescence intensity, and quantifying the ratio between overall DNA fluorescence intensity and overall 5hmC fluorescence intensity, thereby determining the level of 5-hmc in the cell-free DNA molecule, wherein the method is capable of detecting the level of 5-hmc in a DNA molecule of a cell having a 5-hmc prevalence lower than 0.002 % of total DNA. associating a label with the 5-hydroxylmethylcytosine, wherein the label comprises a fluorescent label, attaching to the DNA molecule an additional labelling agent distinct of the 5-hmc specific label, wherein the additional labelling agent is a non-specific fluorescent label for determining overall DNA fluorescence intensity, and quantifying the ratio between overall DNA fluorescence intensity and overall 5hmC fluorescence intensity, thereby determining the level of 5-hmc in the cell-free DNA molecule, wherein the method is capable of detecting the level of 5-hmc in a DNA molecule of a cell having a 5-hmc prevalence lower than 0.002 % of total DNA.
A method of transmitting a power headroom report by a user equipment in a communication system based on carrier aggregation, the method comprising: selecting, by the user equipment, a maximum transmission power for a first serving cell and a maximum transmission power for a second serving cell; obtaining (S610), by the user equipment, a power headroom for the first serving cell based on the maximum transmission power for the first serving cell; obtaining (S610), by the user equipment, a power headroom for the second serving cell based on the maximum transmission power for the second serving cell; and transmitting (S620), by the user equipment, the power headroom report to a base station, the power headroom report including the power headroom for the first serving cell, the maximum transmission power for the first serving cell, the power headroom for the second serving cell, and the maximum transmission power for the second serving cell. selecting, by the user equipment, a maximum transmission power for a first serving cell and a maximum transmission power for a second serving cell; obtaining (S610), by the user equipment, a power headroom for the first serving cell based on the maximum transmission power for the first serving cell; obtaining (S610), by the user equipment, a power headroom for the second serving cell based on the maximum transmission power for the second serving cell; and transmitting (S620), by the user equipment, the power headroom report to a base station, the power headroom report including the power headroom for the first serving cell, the maximum transmission power for the first serving cell, the power headroom for the second serving cell, and the maximum transmission power for the second serving cell.
A method for a communication apparatus comprising: an LTE eNodeB, a Wireless Local Area Network, briefly WLAN, entity comprising a WLAN Medium Access Control, briefly WLAN-MAC, entity, and a plurality of Packet Data Convergence Protocol, briefly PDCP, entities; the communication apparatus not comprising a User Equipment, briefly UE, and operating in a wireless communication system, the method comprising: receiving, by a L2 identification, briefly L2-ID, entity of the communication apparatus from the WLAN-MAC entity of the communication apparatus, a L2-ID Protocol Data Unit, briefly PDU, that includes a L2-ID header, wherein the WLAN-MAC entity is an immediately lower entity of the L2-ID entity; identifying, by the L2-ID entity, a PDCP entity associated with the L2-ID PDU based on the L2-ID header; detaching an identifier of the PDCP entity from the data included in the L2-ID PDU; and delivering the data included in the L2-ID PDU to the identified PDCP entity. an LTE eNodeB, a Wireless Local Area Network, briefly WLAN, entity comprising a WLAN Medium Access Control, briefly WLAN-MAC, entity, and a plurality of Packet Data Convergence Protocol, briefly PDCP, entities; the communication apparatus not comprising a User Equipment, briefly UE, and operating in a wireless communication system, the method comprising: receiving, by a L2 identification, briefly L2-ID, entity of the communication apparatus from the WLAN-MAC entity of the communication apparatus, a L2-ID Protocol Data Unit, briefly PDU, that includes a L2-ID header, wherein the WLAN-MAC entity is an immediately lower entity of the L2-ID entity; identifying, by the L2-ID entity, a PDCP entity associated with the L2-ID PDU based on the L2-ID header; detaching an identifier of the PDCP entity from the data included in the L2-ID PDU; and delivering the data included in the L2-ID PDU to the identified PDCP entity. receiving, by a L2 identification, briefly L2-ID, entity of the communication apparatus from the WLAN-MAC entity of the communication apparatus, a L2-ID Protocol Data Unit, briefly PDU, that includes a L2-ID header, wherein the WLAN-MAC entity is an immediately lower entity of the L2-ID entity; identifying, by the L2-ID entity, a PDCP entity associated with the L2-ID PDU based on the L2-ID header; detaching an identifier of the PDCP entity from the data included in the L2-ID PDU; and delivering the data included in the L2-ID PDU to the identified PDCP entity.
Method of producing a patient-specific eye cavity cover grid , wherein a 3D primary model is formed of the bone structure to be covered or replaced in the region of an eye cavity of a patient to be treated, then a border region representative of the maximum spatial extension of the planned eye cavity cover grid is established, then a 2D secondary model is positioned within the border region over the 3D primary model so that the geometric dimensions of the 3D primary model transferred to the starting form of the original 2D secondary model lead to a 3D tertiary model which is used as the basis for the production of the eye cavity cover grid .
A network search method, comprising: accessing, by a terminal device, a network of a first communications RAT; determining, by the terminal device, that a network anomaly occurs, wherein the network anomaly comprises: no network or a fall into a lower RAT; starting to search, by the terminal device, for a network of a target communications RAT at a first time point, wherein there is a first time interval between the first time point and a second time point, the second time point is a time point at which the terminal device is dropped from a network or falls into a lower RAT, the first time point is a time point after the second time point, wherein the target communications RAT is a communications RAT that is not lower than the first communications RAT; and connecting, by the terminal device, to the network of the target communications RAT; wherein, if the terminal device is in an underground garage scenario, starting, by the terminal device, to search for the network of the target communications RAT at a third time point, wherein there is a second time interval between the third time point and a fourth time point, the fourth time point is a time point at which the terminal device leaves an underground garage, and the third time point is a time point after the fourth time point. accessing, by a terminal device, a network of a first communications RAT; determining, by the terminal device, that a network anomaly occurs, wherein the network anomaly comprises: no network or a fall into a lower RAT; starting to search, by the terminal device, for a network of a target communications RAT at a first time point, wherein there is a first time interval between the first time point and a second time point, the second time point is a time point at which the terminal device is dropped from a network or falls into a lower RAT, the first time point is a time point after the second time point, wherein the target communications RAT is a communications RAT that is not lower than the first communications RAT; and connecting, by the terminal device, to the network of the target communications RAT; wherein, if the terminal device is in an underground garage scenario, starting, by the terminal device, to search for the network of the target communications RAT at a third time point, wherein there is a second time interval between the third time point and a fourth time point, the fourth time point is a time point at which the terminal device leaves an underground garage, and the third time point is a time point after the fourth time point.