mhurhangee/ep-ind-claims huggingface dataset:
A surge protection apparatus assembly having a socket for receiving a surge protection device plug (ÜSS), and a surge protection device plug (ÜSS), • wherein the socket is designed for receiving the surge protection device plug in an essentially form-fitting manner, • wherein the socket has a locking device that holds a plugged-in surge protection device plug in the socket such that it cannot be removed from the bracket, characterized in that • the surge protection device plug (ÜSS) has a surge protection device and a first release device (E 1), wherein the first release device (E 1), in a first warning state of the surge protection device (ÜSE), can act upon the locking device in such a manner that the surge protection device plug (ÜSS) can be removed from the socket. • wherein the socket is designed for receiving the surge protection device plug in an essentially form-fitting manner, • wherein the socket has a locking device that holds a plugged-in surge protection device plug in the socket such that it cannot be removed from the bracket, characterized in that • the surge protection device plug (ÜSS) has a surge protection device and a first release device (E 1), wherein the first release device (E 1), in a first warning state of the surge protection device (ÜSE), can act upon the locking device in such a manner that the surge protection device plug (ÜSS) can be removed from the socket.
A method of establishing an alternate HRPD signaling link between an HRPD access network and an access terminal over a non-HRPD access, comprising: providing a signal forwarding function, SFF, between an access terminal and a high rate packet data, HRPD, access network; establishing a data tunnel between the access terminal and the SFF; exchanging HRPD signaling messages and HRPD data via the data tunnel; identifying the HRPD access network and the access terminal over non-HRPD access by the SFF, by reading a header comprising HRPD sector identification, access terminal identification and stream identification and mapping the header to an address of one of the access terminal and the access network; and forwarding the HRPD signaling messages and the HRPD data that arrive at the SFF from the access terminal and the HRPD access network to the HRPD access network and the access terminal respectively. providing a signal forwarding function, SFF, between an access terminal and a high rate packet data, HRPD, access network; establishing a data tunnel between the access terminal and the SFF; exchanging HRPD signaling messages and HRPD data via the data tunnel; identifying the HRPD access network and the access terminal over non-HRPD access by the SFF, by reading a header comprising HRPD sector identification, access terminal identification and stream identification and mapping the header to an address of one of the access terminal and the access network; and forwarding the HRPD signaling messages and the HRPD data that arrive at the SFF from the access terminal and the HRPD access network to the HRPD access network and the access terminal respectively.
A method for manufacturing a turbomachine blade made of ceramic-matrix composite material comprising an airfoil and a platform, the method comprising: - the production of a first fibrous preform comprising ceramic fibers, the first fibrous preform forming an airfoil preform; - the production of a second fibrous preform (28B, 28C) comprising ceramic fibers, the second fibrous preform comprising a housing (28D, 28E), the second fibrous preform (28B, 28C) forming a platform preform; - the production of a strand of ceramic fibers; - the consolidation of the first fibrous preform in one piece, of the second fibrous preform (28B, 28C) in one piece and of the strand of ceramic fibers to form a first consolidated preform, a second consolidated preform (30B, 30C) comprising a housing (30D, 30E) and a consolidated strand; - the assembly of the first consolidated preform and of the second consolidated preform (30B, 30C), by engagement and cooperation of the first consolidated preform in the housing (30D, 30E), the consolidated strand being interposed between the first consolidated preform and the second consolidated preform (30B, 30C); - the co-densification of the assembly to form the turbomachine blade. - the production of a first fibrous preform comprising ceramic fibers, the first fibrous preform forming an airfoil preform; - the production of a second fibrous preform (28B, 28C) comprising ceramic fibers, the second fibrous preform comprising a housing (28D, 28E), the second fibrous preform (28B, 28C) forming a platform preform; - the production of a strand of ceramic fibers; - the consolidation of the first fibrous preform in one piece, of the second fibrous preform (28B, 28C) in one piece and of the strand of ceramic fibers to form a first consolidated preform, a second consolidated preform (30B, 30C) comprising a housing (30D, 30E) and a consolidated strand; - the assembly of the first consolidated preform and of the second consolidated preform (30B, 30C), by engagement and cooperation of the first consolidated preform in the housing (30D, 30E), the consolidated strand being interposed between the first consolidated preform and the second consolidated preform (30B, 30C); - the co-densification of the assembly to form the turbomachine blade.
An LDO circuit to improve dynamic load transient performance, comprising: - a differential error amplifier, having inputs and an output, wherein a first input is a reference voltage (Vref), a second input is a feedback voltage from a middle node of a voltage divider (R1, R2) and the output of the differential amplifier is coupled to a main pass device, wherein the main pass device is connected to the output of the LDO circuit via a main pad, - a separate pad, said separate pad being connected to an output voltage via bond (Rbond) and substrate routing resistances (Rsub) wherein the voltage divider (R1, R2) is connected between ground and said separate pad, characterized by: - an additional small pass device, wherein the main pass device and the additional small pass device share gate connection and power connection, - a loop for transient response including a stabilizing circuit, said loop including a capacitor (Cmiller) coupled from an output of the differential error amplifier to the drain of the additional small pass device and a resistive device, wherein a first terminal of the resistive device is connected to the drain of the additional small pass device, wherein the second terminal of the resistive device is connected to the separate pad, so that in the loop for fast transient response the bond (Rbond) and substrate routings resistances (Rsub) add up to the resistance of the resistive device thus enabling the LDO circuit to supply currents in a range of more than 200mA. - a differential error amplifier, having inputs and an output, wherein a first input is a reference voltage (Vref), a second input is a feedback voltage from a middle node of a voltage divider (R1, R2) and the output of the differential amplifier is coupled to a main pass device, wherein the main pass device is connected to the output of the LDO circuit via a main pad, - a separate pad, said separate pad being connected to an output voltage via bond (Rbond) and substrate routing resistances (Rsub) wherein the voltage divider (R1, R2) is connected between ground and said separate pad, - an additional small pass device, wherein the main pass device and the additional small pass device share gate connection and power connection, - a loop for transient response including a stabilizing circuit, said loop including a capacitor (Cmiller) coupled from an output of the differential error amplifier to the drain of the additional small pass device and a resistive device, wherein a first terminal of the resistive device is connected to the drain of the additional small pass device, wherein the second terminal of the resistive device is connected to the separate pad, so that in the loop for fast transient response the bond (Rbond) and substrate routings resistances (Rsub) add up to the resistance of the resistive device thus enabling the LDO circuit to supply currents in a range of more than 200mA.
Compound composed of a metallic radionuclide and a marker precursor having a bifunctional, macrocyclic chelator selected from the group comprising 9- to 16-membered polyazamacrocycles and macrocyclic polyamine substituted on all nitrogen atoms and wherein the central metallic radionuclide forms 5-ring chelates or 6-ring chelates with the adjacent nitrogen atoms, characterized in that the marker precursor is composed of the chelator and at least two targeting vectors different from each other and linked to the chelator via coupling units, wherein the coupling units consist of a spacer, said spacer being a linear, branched or heterosubstituted alkyl, alkylene, alkylidene, aryl, polyether or peptide chain which is covalently bonded while maintaining its amino functionality; the targeting vectors are composed of proteinogenic or artificial amino acids each having an α-aminocarboxylic acid group or are selected from bisphosphonates, sugars, purine and pyrimidine bases, nucleotides, nucleosides and derivatives thereof, antibodies, antibody fragments, DNA components, hypoxia tracers, cell membrane components, glutamine, extracellular or intracellular enzyme or receptor ligands.
A system for use during drilling of a wellbore, comprising: a top drive unit; a drill string wherein at least a portion of the drill string comprises a plurality of wined drill pipes; and a saver sub to connect the drill string to the top drive unit, wherein the saver sub is positioned between the drill string and the top drive unit and further wherein the saver sub comprises an antenna to relay and receive data and wherein the saver sub comprises a mandrel having a radially recessed region therein, characterised by a removable shell being mounted in the recessed region of the saver sub, the removable shell being enabled for quick installation and removal from the mandrel and containing electronics, a battery to power the electronics, and external contacts to communicatively couple the shell to the wire drill pipes. a top drive unit; a drill string wherein at least a portion of the drill string comprises a plurality of wined drill pipes; and a saver sub to connect the drill string to the top drive unit, wherein the saver sub is positioned between the drill string and the top drive unit and further wherein the saver sub comprises an antenna to relay and receive data and wherein the saver sub comprises a mandrel having a radially recessed region therein, characterised by a removable shell being mounted in the recessed region of the saver sub, the removable shell being enabled for quick installation and removal from the mandrel and containing electronics, a battery to power the electronics, and external contacts to communicatively couple the shell to the wire drill pipes.
Soil compactor comprising a compaction roller rotatably supported by a compaction roller frame, wherein the compaction roller frame comprises two longitudinal support members (14, 16) arranged in a direction longitudinal to the compactor on both sides of the compaction roller and supporting said compaction roller, and two cross members (20, 22) arranged along both sides of the compaction roller in relation to a direction perpendicular to the compactor and connecting the two longitudinal support members (14, 16) together, wherein the compaction roller frame is connected to a compactor main frame via one of the two cross members (20, 22), and wherein at least one sight opening is provided within the other of the two cross members (20, 22), wherein a leveling blade is supported by the compaction roller frame so as to be movable in a direction vertical to the compactor, wherein the upper area of the leveling blade in a direction vertical to the compactor has at least one leveling blade sight opening and a leveling blade lifting mechanism is supported in relation to the leveling blade and the other cross member, characterized in that in the upper area of the leveling blade a plurality of leveling blade bars is provided, extending essentially parallel to the compaction roller axis of rotation and parallel to one another, and wherein at least one leveling blade sight opening is formed between at least two leveling blade bars.
A supporting device for safety lines comprising: - a main body having a substantially plate-like conformation and intended to be stiffly fixed to a building structure and - an anchoring body having a substantially plate-like conformation and provided with a constrained end integrally fixed to the main body and a free end opposite to said constrained end, wherein the plan area of the main body is greater than the plan area of the anchoring body, wherein the anchoring body has a series of folding lines interposed between said free end and constrained end, each pair of adjacent folding lines delimiting a respective sub-portion of the anchoring body so as to define a series of sub-portions and wherein said anchoring body is structured for deforming at least in correspondence of said folding lines due to a tensile force applied to said free end so that the free end changes its position with respect to the constrained end characterised in that each said sub-portion is lying in a plane oblique with respect to the lying plane of the adjacent sub-portions. - a main body having a substantially plate-like conformation and intended to be stiffly fixed to a building structure and - an anchoring body having a substantially plate-like conformation and provided with a constrained end integrally fixed to the main body and a free end opposite to said constrained end, wherein the plan area of the main body is greater than the plan area of the anchoring body, wherein the anchoring body has a series of folding lines interposed between said free end and constrained end, each pair of adjacent folding lines delimiting a respective sub-portion of the anchoring body so as to define a series of sub-portions and
A lighting control method for controlling a plurality of lighting units arranged to provide illumination in an area, the method comprising receiving one or more images of the area; determining the position of at least one of said lighting units or a corresponding lighting footprint in said area; identifying at least one non-lighting object, other than a person, in a received image of the one or more images of the area, said non-lighting object associated with a pre-defined user activity; determining a relative position of said at least one non-lighting object to said at least one lighting unit or the corresponding lighting footprint; associating, based on the determined relative position, said at least one lighting unit with at least one predetermined light setting associated with said pre-defined user activity; and controlling said at least one lighting unit based on said at least one predetermined light setting.
A vehicle battery pack comprising: a first battery module; a second battery module that is arranged in alignment with the first battery module in a specified arrangement direction; a first cooling pipe configured to cool the first battery module when being supplied with a refrigerant; a second cooling pipe configured to cool the second battery module when being supplied with the refrigerant; and a flow divider configured to divide and supply the refrigerant to the first cooling pipe and the second cooling pipe, wherein the flow divider is arranged between the first battery module and the second battery module in the arrangement direction, characterized in that the first battery module and the second battery module constitute a single-stage battery module group in which the battery modules (24a, 24b) are disposed in a single stage in a vehicle vertical direction, a multi-stage battery module group in which battery modules (23a to 23d) are disposed in plural stages in the vehicle vertical direction is further provided in addition to the single-stage battery module group, the single-stage battery module group and the multi-stage battery module group are arranged, particularly adjacent to each other, in a different direction from the arrangement direction, the flow divider is arranged between the first battery module and the second battery module in the single-stage battery module group, the flow divider is arranged in a manner to overlap the single-stage battery module group when seen in the arrangement direction, and the arrangement direction is a vehicle width direction. a first battery module; a second battery module that is arranged in alignment with the first battery module in a specified arrangement direction; a first cooling pipe configured to cool the first battery module when being supplied with a refrigerant; a second cooling pipe configured to cool the second battery module when being supplied with the refrigerant; and a flow divider configured to divide and supply the refrigerant to the first cooling pipe and the second cooling pipe, wherein the flow divider is arranged between the first battery module and the second battery module in the arrangement direction, characterized in that the first battery module and the second battery module constitute a single-stage battery module group in which the battery modules (24a, 24b) are disposed in a single stage in a vehicle vertical direction, a multi-stage battery module group in which battery modules (23a to 23d) are disposed in plural stages in the vehicle vertical direction is further provided in addition to the single-stage battery module group, the single-stage battery module group and the multi-stage battery module group are arranged, particularly adjacent to each other, in a different direction from the arrangement direction, the flow divider is arranged between the first battery module and the second battery module in the single-stage battery module group, the flow divider is arranged in a manner to overlap the single-stage battery module group when seen in the arrangement direction, and the arrangement direction is a vehicle width direction.
A heavy duty tire comprising: a recess portion formed at a buttress portion, opening toward an outside of the tire, and including a bottom portion; and an air entry/exit promotion portion (36, 38) configured to promote entry and exit of air into and from the bottom portion, the air entry/exit promotion portion (36, 38) including a slope (46, 52) that extends from the bottom portion toward a tire surface such that a depth of the slope (46, 52) from the tire surface gradually decreases, characterized in that: the air entry/exit promotion portion comprises a first air entry/exit promotion portion that is formed at a front side in a tire rotation direction of the recess portion, and a second air entry/exit promotion portion that is formed at an outer side in a tire radial direction of the recess portion; an incline angle of the slope (46, 52) of the first air entry/exit promotion portion and of the second air entry/exit promotion portion with respect to the tire surface is from 5° to 30°; and a width dimension of the first air entry/exit promotion portion at a recess portion side is smaller than a width dimension of the first air entry/exit promotion portion at the tire rotation direction front side of the recess portion. a recess portion formed at a buttress portion, opening toward an outside of the tire, and including a bottom portion; and an air entry/exit promotion portion (36, 38) configured to promote entry and exit of air into and from the bottom portion, the air entry/exit promotion portion (36, 38) including a slope (46, 52) that extends from the bottom portion toward a tire surface such that a depth of the slope (46, 52) from the tire surface gradually decreases, characterized in that: the air entry/exit promotion portion comprises a first air entry/exit promotion portion that is formed at a front side in a tire rotation direction of the recess portion, and a second air entry/exit promotion portion that is formed at an outer side in a tire radial direction of the recess portion; an incline angle of the slope (46, 52) of the first air entry/exit promotion portion and of the second air entry/exit promotion portion with respect to the tire surface is from 5° to 30°; and a width dimension of the first air entry/exit promotion portion at a recess portion side is smaller than a width dimension of the first air entry/exit promotion portion at the tire rotation direction front side of the recess portion. the air entry/exit promotion portion comprises a first air entry/exit promotion portion that is formed at a front side in a tire rotation direction of the recess portion, and a second air entry/exit promotion portion that is formed at an outer side in a tire radial direction of the recess portion; an incline angle of the slope (46, 52) of the first air entry/exit promotion portion and of the second air entry/exit promotion portion with respect to the tire surface is from 5° to 30°; and a width dimension of the first air entry/exit promotion portion at a recess portion side is smaller than a width dimension of the first air entry/exit promotion portion at the tire rotation direction front side of the recess portion.
A client device for a wireless communication system, the client device being configured to: • transmit a Quality-of-Service, QoS, monitoring activation request to a network node; • obtain a QoS monitoring configuration associated with an application of the client device, wherein the obtaining the QoS monitoring configuration comprises: ∘ receiving the QoS monitoring configuration associated with the application of the client device from the network node in response to the transmission of the QoS monitoring activation request to the network node; • monitor for a QoS non-fulfillment in one or more radio links serving the application based on the received QoS monitoring configuration; and • provide a QoS non-fulfillment indication to the application upon detection of a QoS non-fulfillment of one or more QoS requirements obtained from the QoS monitoring configuration. • transmit a Quality-of-Service, QoS, monitoring activation request to a network node; • obtain a QoS monitoring configuration associated with an application of the client device, wherein the obtaining the QoS monitoring configuration comprises: ∘ receiving the QoS monitoring configuration associated with the application of the client device from the network node in response to the transmission of the QoS monitoring activation request to the network node; ∘ receiving the QoS monitoring configuration associated with the application of the client device from the network node in response to the transmission of the QoS monitoring activation request to the network node; • monitor for a QoS non-fulfillment in one or more radio links serving the application based on the received QoS monitoring configuration; and • provide a QoS non-fulfillment indication to the application upon detection of a QoS non-fulfillment of one or more QoS requirements obtained from the QoS monitoring configuration.