mhurhangee/ep-ind-claims huggingface dataset:
Computer-implemented method for controlling a technical device with an optimal model, wherein the following steps are carried out: a) configure at least one device feature of the technical device in the form of a device model by way of a first edge service, b) generate at least one abstracted feature in the form of an abstract model by way of a second edge service, c) generate and configure a first relationship between the first edge service and the second edge service, which is determined by means of an automatic classification of the at least one device feature using the at least one abstracted feature, d) provide (130, 11-13) at least one respective application feature in the form of an application model from at least one IoT service provider by way of the second edge service using a selection parameter on the basis of the abstract model, e) compare the abstracted model with the application model and select the model with the greatest match as the optimal model, f) control the technical device with the optimal model, wherein the selection parameter comprises a variable regarding the quality adherence QAD, which is described by the relationship: QAD = 0.5 1 ftotal ⋅ ∑ f ∈ F 1 − Σ q ∈ Q f r q, f − p q, m f Q f wherein F is the amount of all mapped features, Q f is the amount of quality features which are defined for a feature f, r q,f is the required, normalised value of the feature f for a quality attribute q, p q,m f is the normalised value of the quality attribute q, which m f provides, m f is a concrete cloud feature, which was adjusted to the feature f, and f total is a total number of the application functions. a) configure at least one device feature of the technical device in the form of a device model by way of a first edge service, b) generate at least one abstracted feature in the form of an abstract model by way of a second edge service, c) generate and configure a first relationship between the first edge service and the second edge service, which is determined by means of an automatic classification of the at least one device feature using the at least one abstracted feature, d) provide (130, 11-13) at least one respective application feature in the form of an application model from at least one IoT service provider by way of the second edge service using a selection parameter on the basis of the abstract model, e) compare the abstracted model with the application model and select the model with the greatest match as the optimal model, f) control the technical device with the optimal model, F is the amount of all mapped features, Q f is the amount of quality features which are defined for a feature f, r q,f is the required, normalised value of the feature f for a quality attribute q, p q,m f is the normalised value of the quality attribute q, which m f provides, m f is a concrete cloud feature, which was adjusted to the feature f,
A window system comprising a roof window with a frame structure including top, side and bottom frame members (20,30,40), a sash structure carrying a pane element and including top, side and bottom sash members (2,3,4), an operator including an operator member having a first and a second end and adapted to extend between the frame structure and the sash structure, said frame structure being adapted to be installed in a roof structure, the window system further comprising a flashing arrangement surrounding the said window frame and sash structures and comprising a plurality of flashing members, and a wind deflecting kit placed outside the periphery of the said frame and sash structures and on the outside face of the said flashing arrangement, the said wind deflector kit (10, 10*, 10**) including a plurality of elements, comprising at least two side elements, two corner elements, two side mounting flanges and one front element, which elements are to be assembled to a unitary wind deflector structure placed alongside the outside of the window frame and sash bottom and partially alongside the lower parts of the two window frame and sash sides, characterized in that the unitary wind deflector structure (10, 10*, 10**) is placed, in the longitudinal direction of the window, at a distance from the roof window bottom equal to the height of the said deflector structure and, in the lateral direction of the window, at a distance from the window sides less than half the said height.
A sound processing system, comprising: a head unit; a decoder connected to the head unit, where the decoder generates decoded signals in response to audio signals from the head unit; a crossbar matrix mixer connected to the head unit, where the crossbar matrix mixer receives the audio signals from the head unit, where the crossbar matrix mixer receives the decoded signals from the decoder, and where the crossbar matrix mixer generates mixed output signals in response to the audio and decoded signals; and at least one filter connected to the crossbar matrix mixer, where the at least one filter attenuates a tone of at least one of the audio and mixed output signals in response to a predetermined volume level; where the at least one filter comprises a pre-filter connected between the head unit and the crossbar matrix mixer, where the pre-filter attenuates the tone of the audio signals. a head unit; a decoder connected to the head unit, where the decoder generates decoded signals in response to audio signals from the head unit; a crossbar matrix mixer connected to the head unit, where the crossbar matrix mixer receives the audio signals from the head unit, where the crossbar matrix mixer receives the decoded signals from the decoder, and where the crossbar matrix mixer generates mixed output signals in response to the audio and decoded signals; and at least one filter connected to the crossbar matrix mixer, where the at least one filter attenuates a tone of at least one of the audio and mixed output signals in response to a predetermined volume level; where the at least one filter comprises a pre-filter connected between the head unit and the crossbar matrix mixer, where the pre-filter attenuates the tone of the audio signals.
A non-Newtonian inkjet ink, comprising: a metal oxide in an amount ranging from 0.1% to 10% by weight based on the total weight of the non-Newtonian inkjet ink; a salt in an amount of 0.05% to 10% by weight based on the total weight of the non-Newtonian inkjet ink; and an organic solvent; wherein the metal oxide forms a structured network in the presence of the salt, and wherein the inkjet ink has a dynamic viscosity ranging from 25 mPa·s (25 cps) to 10,000 mPa·s (10,000 cps) at shear rate of 5 s -1 and a dynamic viscosity ranging from 1 mPa·s (1 cps) to 50 mPa·s (50 cps) at a shear rate of 10,000 s -1, measured at 25 °C; wherein the metal oxide is selected from the group consisting of aluminum oxide, silicon dioxide, zinc oxide, iron oxide, titanium dioxide, indium oxide, zirconium oxide, and mixtures thereof; and the salt includes a cation selected from the group consisting of sodium, lithium, potassium, magnesium, and calcium; and an anion selected from the group consisting of nitrate, chloride, sulfate, and acetate. a metal oxide in an amount ranging from 0.1% to 10% by weight based on the total weight of the non-Newtonian inkjet ink; a salt in an amount of 0.05% to 10% by weight based on the total weight of the non-Newtonian inkjet ink; and an organic solvent; wherein the metal oxide forms a structured network in the presence of the salt, and wherein the inkjet ink has a dynamic viscosity ranging from 25 mPa·s (25 cps) to 10,000 mPa·s (10,000 cps) at shear rate of 5 s -1 and a dynamic viscosity ranging from 1 mPa·s (1 cps) to 50 mPa·s (50 cps) at a shear rate of 10,000 s -1, measured at 25 °C;
A component pickup method for holding and picking up a component supplied in a lined up state using a component holding device, the component pickup method comprising: holding the component that is at a pickup position using the component holding device; characterized in that: while holding the component as is with the component holding device, moving the component holding device a specified distance in a first direction towards a component adjacent to the held component, then moving the component holding device in a direction opposite to the first direction, and then raising the component holding device. holding the component that is at a pickup position using the component holding device; characterized in that: while holding the component as is with the component holding device, moving the component holding device a specified distance in a first direction towards a component adjacent to the held component, then moving the component holding device in a direction opposite to the first direction, and then raising the component holding device.
A method of removing benzodiazepine drug-related impurities from a mixture comprising benzodiazepine antibody-drug conjugates (ADCs) and benzodiazepine drug-related impurities, the method comprising the step of passing the mixture through an activated charcoal filter by multiple discrete passes or by recirculation through a single activated charcoal filter, wherein the benzodiazepine antibody-drug conjugates are comprised of a pyrrolobenzodiazepine dimer having the structure of: or salt thereof, wherein the arrow indicated the site of conjugation to the pyrrolobenzodiazepine dimer.
A method for a communication network comprising: receiving data associated with a user equipment, UE, at a central baseband unit; determining one or more block time scheduling decisions for a plurality of subframes associated with the data; communicating the data to a remote radio unit; communicating the one or more block time scheduling decisions to the remote radio unit; and communicating the data to the UE from the remote radio unit based, at least in part, on: (i) a primary block time scheduling decision communicated to the remote radio unit if a scheduling decision does arrive from the central baseband unit within a predetermined window, and (ii) a secondary block time scheduling decision communicated to the remote radio unit or derived at the remote radio unit if a scheduling decision does not arrive from the central baseband unit within a predetermined window. receiving data associated with a user equipment, UE, at a central baseband unit; determining one or more block time scheduling decisions for a plurality of subframes associated with the data; communicating the data to a remote radio unit; communicating the one or more block time scheduling decisions to the remote radio unit; and communicating the data to the UE from the remote radio unit based, at least in part, on: (i) a primary block time scheduling decision communicated to the remote radio unit if a scheduling decision does arrive from the central baseband unit within a predetermined window, and (ii) a secondary block time scheduling decision communicated to the remote radio unit or derived at the remote radio unit if a scheduling decision does not arrive from the central baseband unit within a predetermined window. (i) a primary block time scheduling decision communicated to the remote radio unit if a scheduling decision does arrive from the central baseband unit within a predetermined window, and (ii) a secondary block time scheduling decision communicated to the remote radio unit or derived at the remote radio unit if a scheduling decision does not arrive from the central baseband unit within a predetermined window.
A device for treatment of deep vein thrombosis or pulmonary embolism, the device comprising: a core member configured to be positioned intravascularly at or adjacent a treatment site; an outer member (113; 305) spirally winding around at least a portion of the inner member, the outer member (113; 305) having a low-profile configuration for delivery through a catheter and an expanded configuration for deployment at the treatment site; a sheet or strip of flexible material configured to engage clot material when the outer member (113; 305) is in the expanded configuration; an inner member coupled to and slidably extendable along the core member, the inner member configured to transition from a first axial length to a second axial length greater than the first as the device is withdrawn into a covering sheath; and the sheet or strip of flexible material extending between and coupled to the inner member and the outer member (113; 305). a core member configured to be positioned intravascularly at or adjacent a treatment site; an outer member (113; 305) spirally winding around at least a portion of the inner member, the outer member (113; 305) having a low-profile configuration for delivery through a catheter and an expanded configuration for deployment at the treatment site; a sheet or strip of flexible material configured to engage clot material when the outer member (113; 305) is in the expanded configuration; an inner member coupled to and slidably extendable along the core member, the inner member configured to transition from a first axial length to a second axial length greater than the first as the device is withdrawn into a covering sheath; and the sheet or strip of flexible material extending between and coupled to the inner member and the outer member (113; 305).
A method for accessing a wireless fidelity,Wi-Fi, network by a user equipment, comprising: accessing, by a Wi-Fi access point, a first Wi-Fi network by using pre-stored network access configuration of the first Wi-Fi network; after a user equipment accesses a second Wi-Fi network established by the Wi-Fi access point, determining, by the Wi-Fi access point according to at least one of communication quality between the user equipment and the first Wi-Fi network, and function configuration of the user equipment and the first Wi-Fi network, whether the user equipment can access the first Wi-Fi network; and sending, by the Wi-Fi access point, network access configuration of the first Wi-Fi network to the user equipment if the Wi-Fi access point determines that the user equipment can access the first Wi-Fi network, wherein the network access configuration of the first Wi-Fi network is used for the user equipment to access the first Wi-Fi network; querying, by the Wi-Fi access point, whether the user equipment has accessed the first Wi-Fi network; or receiving, by the Wi-Fi access point, an event that is reported by the user equipment and indicates that the user equipment has accessed the first Wi-Fi network; and performing, by the Wi-Fi access point, at least one of the following operations: disconnecting a connection to the first Wi-Fi network; and entering a sleep mode. accessing, by a Wi-Fi access point, a first Wi-Fi network by using pre-stored network access configuration of the first Wi-Fi network; after a user equipment accesses a second Wi-Fi network established by the Wi-Fi access point, determining, by the Wi-Fi access point according to at least one of communication quality between the user equipment and the first Wi-Fi network, and function configuration of the user equipment and the first Wi-Fi network, whether the user equipment can access the first Wi-Fi network; and sending, by the Wi-Fi access point, network access configuration of the first Wi-Fi network to the user equipment if the Wi-Fi access point determines that the user equipment can access the first Wi-Fi network, wherein the network access configuration of the first Wi-Fi network is used for the user equipment to access the first Wi-Fi network; querying, by the Wi-Fi access point, whether the user equipment has accessed the first Wi-Fi network; or receiving, by the Wi-Fi access point, an event that is reported by the user equipment and indicates that the user equipment has accessed the first Wi-Fi network; and performing, by the Wi-Fi access point, at least one of the following operations: disconnecting a connection to the first Wi-Fi network; and entering a sleep mode.
A particulate substance comprising: particles of a ceramic matrix bearing an aminofunctional group, the aminofunctional group being capable of promoting penetration of the particles into cells and being distributed homogeneously throughout said particles; and a biomolecule disposed within pores of the particles, the biomolecule being releasable from the particles by dissolution of the ceramic matrix. particles of a ceramic matrix bearing an aminofunctional group, the aminofunctional group being capable of promoting penetration of the particles into cells and being distributed homogeneously throughout said particles; and a biomolecule disposed within pores of the particles, the biomolecule being releasable from the particles by dissolution of the ceramic matrix.
A graft coated natural stone sealer composition comprising: a fluoropolymer; diethylene glycol monobutyl ether; an antimicrobial agent; water; an acrylic prepolymer; a polycarbonate urethane acrylic hybrid prepolymer; a urethane acrylate monomer; a metal ion graft initiator; and a urea peroxide solution. a fluoropolymer; diethylene glycol monobutyl ether; an antimicrobial agent; water; an acrylic prepolymer; a polycarbonate urethane acrylic hybrid prepolymer; a urethane acrylate monomer; a metal ion graft initiator; and a urea peroxide solution.
A method performed by a lawful interception, LI, administrative function, ADMF, in a telecommunication network, the method comprising: - transmitting, to a point of interception, POI, in a network element, NE,, via an X1 interface, a request associated with a destination (133, 134) to which the POI is to transmit intercepted data via an X2 and/or an X3 interface during subsequent lawful interception, wherein the request comprises: - a destination identifier, DID, of the destination (133, 134), - version information that specifies at least one version of a transmission protocol to use by the POI for transmission of intercepted data to the destination (133, 134) identified by the DID via the X2 and/or the X3 interface during the subsequent lawful interception, and - receiving, from the POI via the X1 interface, a response that indicates that the POI is not able to transmit intercepted data via the X2 and/or the X3 interface using a version of the transmission protocol that is equal to one of the versions in the transmitted version information. - transmitting, to a point of interception, POI, in a network element, NE,, via an X1 interface, a request associated with a destination (133, 134) to which the POI is to transmit intercepted data via an X2 and/or an X3 interface during subsequent lawful interception, wherein the request comprises: - a destination identifier, DID, of the destination (133, 134), - version information that specifies at least one version of a transmission protocol to use by the POI for transmission of intercepted data to the destination (133, 134) identified by the DID via the X2 and/or the X3 interface during the subsequent lawful interception, and - a destination identifier, DID, of the destination (133, 134), - version information that specifies at least one version of a transmission protocol to use by the POI for transmission of intercepted data to the destination (133, 134) identified by the DID via the X2 and/or the X3 interface during the subsequent lawful interception, and - receiving, from the POI via the X1 interface, a response that indicates that the POI is not able to transmit intercepted data via the X2 and/or the X3 interface using a version of the transmission protocol that is equal to one of the versions in the transmitted version information.
A power tool comprising: a housing; a brushless DC motor arranged within the housing, the motor including a stator and a rotor rotatably disposed within the stator; a power module electrically disposed between the motor and a power supply, the power module comprising a plurality of power switches; an actuator engageable by a user; and a control module configured to control a switching operation of the plurality of power switches to begin supply power to the motor when the actuator is engaged, characterised in that the control module is configured to monitor engagement and disengagement events of the actuator, and ignore a subsequent engagement of the actuator if at least one of number of actuator engagement events and/or number of actuator disengagement events exceeds a predetermined threshold value within a predetermined time. a housing; a brushless DC motor arranged within the housing, the motor including a stator and a rotor rotatably disposed within the stator; a power module electrically disposed between the motor and a power supply, the power module comprising a plurality of power switches; an actuator engageable by a user; and a control module configured to control a switching operation of the plurality of power switches to begin supply power to the motor when the actuator is engaged, characterised in that the control module is configured to monitor engagement and disengagement events of the actuator, and ignore a subsequent engagement of the actuator if at least one of number of actuator engagement events and/or number of actuator disengagement events exceeds a predetermined threshold value within a predetermined time.
A heat exchanger system for a propulsion system inlet duct, the heat exchanger system comprising: an inlet duct assembly comprising an inlet duct (36, 40), wherein the inlet duct (36, 40) includes a cross-sectional area defined in a plane taken transverse to a longitudinal length of the inlet duct (36, 40); and a heat exchanger assembly disposed in the inlet duct assembly, the heat exchanger assembly having a front facing cross-sectional area (110, 112) that is greater than the cross-sectional area of the inlet duct, characterised in that: the inlet duct is an upper inlet duct and the inlet duct assembly further includes a lower inlet duct, wherein the lower inlet duct includes a cross-sectional area defined in a plane taken transverse to a longitudinal length of the lower inlet duct; the heat exchanger assembly includes an upper heat exchanger assembly in the upper inlet duct and a lower heat exchanger assembly in the lower inlet duct; and a combined front facing cross-sectional area (110, 112) of the upper heat exchanger assembly and the lower heat exchanger assembly is greater than the combined cross-sectional areas (110, 112) of the upper inlet duct and the lower inlet duct. an inlet duct assembly comprising an inlet duct (36, 40), wherein the inlet duct (36, 40) includes a cross-sectional area defined in a plane taken transverse to a longitudinal length of the inlet duct (36, 40); and a heat exchanger assembly disposed in the inlet duct assembly, the heat exchanger assembly having a front facing cross-sectional area (110, 112) that is greater than the cross-sectional area of the inlet duct, the inlet duct is an upper inlet duct and the inlet duct assembly further includes a lower inlet duct, wherein the lower inlet duct includes a cross-sectional area defined in a plane taken transverse to a longitudinal length of the lower inlet duct; the heat exchanger assembly includes an upper heat exchanger assembly in the upper inlet duct and a lower heat exchanger assembly in the lower inlet duct; and a combined front facing cross-sectional area (110, 112) of the upper heat exchanger assembly and the lower heat exchanger assembly is greater than the combined cross-sectional areas (110, 112) of the upper inlet duct and the lower inlet duct.