mhurhangee/ep-ind-claims huggingface dataset:
An optical article comprising in this order: - a substrate; - a primer layer generated by curing a polymerizable composition containing polyisocyanate as component, hydroxy group-containing compound as component; and a polymerizable compound having a viscosity of ≤ 100 cP, measured with a vibration-type viscometer at 25°C, and being selected from (meth)acrylates and vinyl ethers as component, wherein the content of component is ≥ 30.0 mass%, based on the total of components, and; and - a photochromic layer containing a photochromic compound. - a substrate; - a primer layer generated by curing a polymerizable composition containing polyisocyanate as component, hydroxy group-containing compound as component; and a polymerizable compound having a viscosity of ≤ 100 cP, measured with a vibration-type viscometer at 25°C, and being selected from (meth)acrylates and vinyl ethers as component, wherein the content of component is ≥ 30.0 mass%, based on the total of components, and; and - a photochromic layer containing a photochromic compound.
Aqueous two-component basecoat material (b) comprising (b.1) a base component comprising at least one polyurethane resin having a hydroxyl number of 15 to 100 mg KOH/g and an acid number of 10 to 50 mg KOH/g, at least one aqueous dispersion comprising water and a polyurethane resin fraction consisting of at least one polyurethane resin, the polyurethane resin fraction having a gel fraction of at least 50%, having its glass transition at a temperature of less than -20°C, having its melting transition at a temperature of less than 100°C, and the proportion of the polyurethane resin fraction in the dispersion being 15 to 60 wt%, based on the total amount of the dispersion, at least one colour and/or effect pigment, at least one pigment being used in the form of at least one pigment paste comprising at least one polyurethane resin as pasting resin, and (b.2) a curing component comprising at least one hydrophilically modified polyisocyanate having an isocyanate content of 8 to 18 wt%, with glass transition and melting transition being determined by the method from the description. (b.1) a base component comprising at least one polyurethane resin having a hydroxyl number of 15 to 100 mg KOH/g and an acid number of 10 to 50 mg KOH/g, at least one aqueous dispersion comprising water and a polyurethane resin fraction consisting of at least one polyurethane resin, the polyurethane resin fraction having a gel fraction of at least 50%, having its glass transition at a temperature of less than -20°C, having its melting transition at a temperature of less than 100°C, and the proportion of the polyurethane resin fraction in the dispersion being 15 to 60 wt%, based on the total amount of the dispersion, at least one colour and/or effect pigment, at least one pigment being used in the form of at least one pigment paste comprising at least one polyurethane resin as pasting resin, and at least one polyurethane resin having a hydroxyl number of 15 to 100 mg KOH/g and an acid number of 10 to 50 mg KOH/g, at least one aqueous dispersion comprising water and a polyurethane resin fraction consisting of at least one polyurethane resin, the polyurethane resin fraction having a gel fraction of at least 50%, having its glass transition at a temperature of less than -20°C, having its melting transition at a temperature of less than 100°C, and the proportion of the polyurethane resin fraction in the dispersion being 15 to 60 wt%, based on the total amount of the dispersion, at least one colour and/or effect pigment, at least one pigment being used in the form of at least one pigment paste comprising at least one polyurethane resin as pasting resin, and (b.2) a curing component comprising at least one hydrophilically modified polyisocyanate having an isocyanate content of 8 to 18 wt%, with glass transition and melting transition being determined by the method from the description.
A downlink control channel detection method, wherein the method comprises: receiving, by a user equipment, UE, signaling sent by a base station; and determining, by the UE, whether a downlink control channel needs to be detected within one or more Transmission Time Intervals, TTIs, according to the signaling; wherein the signaling is indicator information carried by a group common Physical Downlink Control Channel, group common PDCCH; wherein the indicator information carried by the group common PDCCH is N-bit indicator information, and N is a positive integer greater than 1; using each bit of the N-bit information to indicate whether a downlink control channel in a TTI needs to be detected; wherein a kth information bit indicates whether the UE needs to detect and receive the downlink control channel within a TTI n+k wherein k is a positive integer greater than or equal to 0. receiving, by a user equipment, UE, signaling sent by a base station; and determining, by the UE, whether a downlink control channel needs to be detected within one or more Transmission Time Intervals, TTIs, according to the signaling; wherein the signaling is indicator information carried by a group common Physical Downlink Control Channel, group common PDCCH; wherein the indicator information carried by the group common PDCCH is N-bit indicator information, and N is a positive integer greater than 1; using each bit of the N-bit information to indicate whether a downlink control channel in a TTI needs to be detected; wherein a kth information bit indicates whether the UE needs to detect and receive the downlink control channel within a TTI n+k wherein k is a positive integer greater than or equal to 0.
An ultrasound probe having a plurality of piezoelectric elements arranged in a first direction, the ultrasound probe comprising: a support member that supports the plurality of piezoelectric elements, an acoustic matching portion disposed on the plurality of piezoelectric elements and a conductive member (Fr, Rr) disposed on the plurality of piezoelectric elements and adjacent to the acoustic matching portion, wherein each of the plurality of piezoelectric elements is formed of a laminate including a first conductive portion, piezoelectric portion, and a second conductive portion, which are sequentially laminated above the support member, the conductive member (Fr, Rr) includes a conductor layer (31F, 31R, 32F, 32R) having a multi-layer structure, which is disposed on at least one end side of the acoustic matching portion in a second direction intersecting the first direction, the conductor layer (31F, 31R, 32F, 32R) having a multi-layer structure includes a plurality of first conductor layers (32F, 32R) respectively bonded to the second conductive portions of the piezoelectric elements and a second conductor layer (31F, 31R) laminated on the plurality of first conductor layer (32F, 32R) and electrically connects the plurality of first conductor layers (32F, 32R), characterized in that a ratio of a thickness to a width of the first conductor layer (32F, 32R) is 1.6 or less, the width of the first conductor layer (32F, 32R) being a length of the first conductor layer (32F, 32R) in the first direction. a support member that supports the plurality of piezoelectric elements, an acoustic matching portion disposed on the plurality of piezoelectric elements and a conductive member (Fr, Rr) disposed on the plurality of piezoelectric elements and adjacent to the acoustic matching portion, wherein each of the plurality of piezoelectric elements is formed of a laminate including a first conductive portion, piezoelectric portion, and a second conductive portion, which are sequentially laminated above the support member, the conductive member (Fr, Rr) includes a conductor layer (31F, 31R, 32F, 32R) having a multi-layer structure, which is disposed on at least one end side of the acoustic matching portion in a second direction intersecting the first direction, the conductor layer (31F, 31R, 32F, 32R) having a multi-layer structure includes a plurality of first conductor layers (32F, 32R) respectively bonded to the second conductive portions of the piezoelectric elements and a second conductor layer (31F, 31R) laminated on the plurality of first conductor layer (32F, 32R) and electrically connects the plurality of first conductor layers (32F, 32R), characterized in that a ratio of a thickness to a width of the first conductor layer (32F, 32R) is 1.6 or less, the width of the first conductor layer (32F, 32R) being a length of the first conductor layer (32F, 32R) in the first direction.
An apparatus for producing a nanofiber, comprising: a high-pressure gas ejection unit for ejecting a high-pressure gas flow; and a plurality of liquid raw material discharge units for discharging a liquid raw material to the high-pressure gas flow ejected from said high-pressure gas ejection unit, wherein said liquid raw material discharge units are provided around a center of the high-pressure gas flow ejected from said high-pressure gas ejection unit, characterized by an angle adjustment unit capable of adjusting an installation angle (θ) of said liquid raw material discharge units to the high-pressure gas flow ejected from said high-pressure gas ejection unit. a high-pressure gas ejection unit for ejecting a high-pressure gas flow; and a plurality of liquid raw material discharge units for discharging a liquid raw material to the high-pressure gas flow ejected from said high-pressure gas ejection unit, wherein said liquid raw material discharge units are provided around a center of the high-pressure gas flow ejected from said high-pressure gas ejection unit, characterized by an angle adjustment unit capable of adjusting an installation angle (θ) of said liquid raw material discharge units to the high-pressure gas flow ejected from said high-pressure gas ejection unit.
Force sensor comprising - a support with a front side and a back side, - a semiconductor body with an top surface and a back surface and a piezoresistive element formed at the top surface of the semiconductor body, wherein the semiconductor body is non-positively connected with the support, and - a first blade, which is formed at the top surface of the semiconductor body, with an upper side and a lower side, wherein the first blade is resiliently movable substantially along the normal vector of the top surface of the semiconductor body, the first blade is non-positively connected with the semiconductor body, the semiconductor body is formed as a counter-bearing in the case of movement of the first blade, and a first force introduction region is formed on the first blade, characterised in that a second blade arranged opposite the first blade is formed with a second force introduction region, the piezoresistive element is arranged between the first blade and the second blade, and a force distribution means of bridge-like construction and non-positively connected with the first force introduction region and the second force introduction region is provided, wherein the force distribution means has a first surface, which is remote from the top surface of the semiconductor body, with a third force introduction region. - a support with a front side and a back side, - a semiconductor body with an top surface and a back surface and a piezoresistive element formed at the top surface of the semiconductor body, wherein the semiconductor body is non-positively connected with the support, and - a first blade, which is formed at the top surface of the semiconductor body, with an upper side and a lower side,
A method for software defined network, SDN-based control over remote flow mirroring, comprising: determining a mirror path between a mirror source switch and a mirror destination switch according to configuration information of remote flow mirroring and network topology information; and sending a mirror flow table to switches in the mirror path, wherein the mirror flow table carries matching field information specified for target traffic flow and forwarding action information corresponding to each of the switches, wherein the matching field information and forwarding action information are used for each of the switches mirroring a monitored target traffic flow from the mirror source switch to the mirror destination switch according to the mirror flow table. determining a mirror path between a mirror source switch and a mirror destination switch according to configuration information of remote flow mirroring and network topology information; and sending a mirror flow table to switches in the mirror path, wherein the mirror flow table carries matching field information specified for target traffic flow and forwarding action information corresponding to each of the switches, wherein the matching field information and forwarding action information are used for each of the switches mirroring a monitored target traffic flow from the mirror source switch to the mirror destination switch according to the mirror flow table.
A guide template having a tool guide for a working tool, namely a drilling tool or milling tool, for producing a main-side cut-out on a workpiece main-side surface of a workpiece, which workpiece has a workpiece secondary-side surface, which is at an angle to the workpiece main-side surface and proceeding from which a secondary-side cut-out extends into the workpiece next to the workpiece main-side surface at a distance therefrom, wherein the guide template comprises a main-side stop having a main-side stop surface for making contact with the workpiece main-side surface and comprises a secondary-side stop, which has an engagement protrusion for engaging the secondary-side cut-out, wherein a longitudinal axis of the engagement protrusion extends toward the tool guide to an intersection region, in which the main-side cut-out to be produced and the secondary-side cut-out intersect, and is at an angle, in particular a right angle, to a guide longitudinal axis of the tool guide, wherein the guide template comprises a depth stop having a depth stop surface for a counter stop assigned to the working tool for limiting the penetration depth of the working tool into the workpiece with respect to the guide longitudinal axis, characterized in that the depth stop and the engagement protrusion are arranged on a carrier body, on which the main-side stop is mounted for adjustment by means of an adjusting device for adjusting a main-side stop distance (A1, A2) of the main-side stop surface with respect to the engagement protrusion while a depth-setting distance (T1, T2) is retained between the engagement protrusion, particularly a side of the engagement protrusion facing away from the main-side stop surface, and the depth stop surface.
A power control method, comprising: determining (101, 201, 302) a transmit power P1 of a base station of a first-standard communication system when a service runs in the first-standard communication system; determining (102, 202, 303) that the transmit power P1 is higher than or equal to a threshold value P2 of an interference power of the first-standard communication system to a second-standard communication system, wherein the network standard of the first-standard communication system is different from that of the second-standard communication system; and sending data on an interfering frequency of the first-standard communication system by using a power lower than the transmit power P1, wherein the interfering frequency is a frequency that causes an interference to the second-standard communication system among hopping frequencies used by the service, the method further comprises: sending data on a non-interfering frequency of the first-standard communication by using a power higher than the transmit power P1, wherein the using a power lower than P1 to send data on an interfering frequency comprises: determining that (Pmax - P1) x n1 > (P1 - P2) x n2+ P offset, wherein the n1 is a number of non-interfering frequencies, the n2 is a number of interfering frequencies, the P max is a maximum transmit power of a cell of the first-standard communication system where the service is ran, and the P offset is an offset of the compensated power; and sending the data on the interfering frequency by using a power of the threshold value P2 of the interference. determining (101, 201, 302) a transmit power P1 of a base station of a first-standard communication system when a service runs in the first-standard communication system; determining (102, 202, 303) that the transmit power P1 is higher than or equal to a threshold value P2 of an interference power of the first-standard communication system to a second-standard communication system, wherein the network standard of the first-standard communication system is different from that of the second-standard communication system; and sending data on an interfering frequency of the first-standard communication system by using a power lower than the transmit power P1, wherein the interfering frequency is a frequency that causes an interference to the second-standard communication system among hopping frequencies used by the service, the method further comprises: sending data on a non-interfering frequency of the first-standard communication by using a power higher than the transmit power P1, wherein the using a power lower than P1 to send data on an interfering frequency comprises: determining that (Pmax - P1) x n1 > (P1 - P2) x n2+ P offset, wherein the n1 is a number of non-interfering frequencies, the n2 is a number of interfering frequencies, the P max is a maximum transmit power of a cell of the first-standard communication system where the service is ran, and the P offset is an offset of the compensated power; and sending the data on the interfering frequency by using a power of the threshold value P2 of the interference.
Method for producing components in a beam melting installation, in which at least one component to be produced is produced layer-wise, wherein, in order to produce each component layer, a powder layer is applied onto the build platform and already produced component layers by means of a coating slide, which moves across a build platform, by a blade fastened on the coating slide, and melt traces are subsequently inscribed in the powder layer by means of a directed beam, in particular a laser beam or electron beam, so that the powder melts in the melt trace and bonds to underlying component layers, characterized in that during the travel of the coating slide in order to apply a new powder layer, perturbations of the travel of the coating slide or components connected thereto are metrologically detected.
A method implemented by a network node for signaling to a wireless communication device which precoders in a codebook are restricted from being used, the method comprising: generating codebook subset restriction signaling that, for each of one or more groups of precoders, jointly restricts the precoders in the group by restricting a certain component that the precoders in the group have in common; sending the generated signaling from the network node to the wireless communication device the method characterized in that the precoders are Kronecker product based precoders defined for a multi-dimensional antenna array; and the signaling is rank-agnostic so as to restrict precoders irrespective of their transmission rank. generating codebook subset restriction signaling that, for each of one or more groups of precoders, jointly restricts the precoders in the group by restricting a certain component that the precoders in the group have in common; sending the generated signaling from the network node to the wireless communication device the method characterized in that the precoders are Kronecker product based precoders defined for a multi-dimensional antenna array; and the signaling is rank-agnostic so as to restrict precoders irrespective of their transmission rank.
An ultra-high power single mode,SM, fiber laser system comprising: a monolithic fiber - to - fiber-rod booster including an elongated input fiber portion and an output fiber rod portion, the booster being structured with a core and a cladding surrounding the core between opposite ends of the booster, the core including: a flexible, uniformly dimensioned input core region extending along a length of the input fiber portion and configured to waveguide a SM in a propagating direction, and a straight output core region expanding from the input core region along a length of the fiber rod portion towards an output end of the core, which is capable of supporting fundamental and high order modes with a mode area of the fundamental mode,FM, overlapping a central zone of a cross-section area of the core, the fiber rod portion being configured with a length between 10 cm and 30 cm, and the output end of the core having a numerical aperture of equal to or higher than 0.1; and an ultra-high power multimode pump source operative to emit pump light having a numerical aperture lower than that of the output end of the core and coupled into the output end in a counter-propagating direction, a power density of the pump light being higher than a density required to bleach a peripheral zone of the cross section area of the core not overlapped by the FM, wherein the booster emits an output in the SM with an average output power exceeding 5 kW or a peak power reaching a MW level. a flexible, uniformly dimensioned input core region extending along a length of the input fiber portion and configured to waveguide a SM in a propagating direction, and a straight output core region expanding from the input core region along a length of the fiber rod portion towards an output end of the core, which is capable of supporting fundamental and high order modes with a mode area of the fundamental mode,FM, overlapping a central zone of a cross-section area of the core, the fiber rod portion being configured with a length between 10 cm and 30 cm, and the output end of the core having a numerical aperture of equal to or higher than 0.1; and an ultra-high power multimode pump source operative to emit pump light having a numerical aperture lower than that of the output end of the core and coupled into the output end in a counter-propagating direction, a power density of the pump light being higher than a density required to bleach a peripheral zone of the cross section area of the core not overlapped by the FM, wherein the booster emits an output in the SM with an average output power exceeding 5 kW or a peak power reaching a MW level.
A bone repair device (1500, 1600, 1700, 2400, 2500, 2600) comprising: a plate (1510A, 1610A, 1710A, 2410A, 2510, 2610) including opposing top and bottom surfaces and a first side extending between the top and the bottom surfaces (1512, 1514, 1612, 1614) thereof; a first partial loop (1520, 2420, 2620) attached to and extending from the top surface of the plate; and a first flexible structure (1540A-1540C, 2440, 2640) directly attached to and extending from the first side (1516A, 1616A) of the plate, characterized in that the first flexible structure is in the form of chainmail such that the first flexible structure is configured for being wrapped at least partially around a bone. a plate (1510A, 1610A, 1710A, 2410A, 2510, 2610) including opposing top and bottom surfaces and a first side extending between the top and the bottom surfaces (1512, 1514, 1612, 1614) thereof; a first partial loop (1520, 2420, 2620) attached to and extending from the top surface of the plate; and a first flexible structure (1540A-1540C, 2440, 2640) directly attached to and extending from the first side (1516A, 1616A) of the plate, characterized in that the first flexible structure is in the form of chainmail such that the first flexible structure is configured for being wrapped at least partially around a bone.