mhurhangee/ep-ind-claims huggingface dataset:
A fiber optic connector, comprising: a connector assembly being an SC connector assembly comprising a connector housing, a ferrule, a spring push, a ferrule holder and a resilient member for biasing the ferrule forward; a first shell and a second shell for securing the connector assembly at a front end of the shells; a connector sleeve assembly (136, 336) comprising a housing (133, 333) comprising one or more features configured for attaching to the connector assembly and a passageway between a first end and a second end, and a ferrule sleeve (135, 335), wherein the ferrule of the connector assembly is at least partially disposed in the ferrule sleeve (135, 335) when assembled; and a female coupling housing comprising an opening for receiving a complementary connector; characterised by a ferrule insertion stop disposed about a portion of the ferrule, wherein the ferrule insertion stop is a collar disposed about said portion of the ferrule. a connector assembly being an SC connector assembly comprising a connector housing, a ferrule, a spring push, a ferrule holder and a resilient member for biasing the ferrule forward; a first shell and a second shell for securing the connector assembly at a front end of the shells; a connector sleeve assembly (136, 336) comprising a housing (133, 333) comprising one or more features configured for attaching to the connector assembly and a passageway between a first end and a second end, and a ferrule sleeve (135, 335), wherein the ferrule of the connector assembly is at least partially disposed in the ferrule sleeve (135, 335) when assembled; and a female coupling housing comprising an opening for receiving a complementary connector; characterised by a ferrule insertion stop disposed about a portion of the ferrule, wherein the ferrule insertion stop is a collar disposed about said portion of the ferrule.
A method of furcating a fiber optic cable having an outer jacket and that contains multiple micromodules each having a buffer tube that contains at least one optical fiber, the method comprising: removing an end portion of the outer jacket from the fiber optic cable to expose end portions of the micromodules; helically stranding the exposed micromodule end portions to form a stranded section having a stranded configuration that includes at least three turns; arranging a maintaining member on at least a portion of the stranded section to maintain the stranded configuration; and disposing a furcation body on at least a portion of the maintaining member; wherein an end of the outer jacket and the stranded section define a furcation point, and the optical fibers are free to move within their respective buffer tubes except for at the furcation point because the stranded configuration of the stranded section immobilizes the optical fibers within their respective buffer tubes. removing an end portion of the outer jacket from the fiber optic cable to expose end portions of the micromodules; helically stranding the exposed micromodule end portions to form a stranded section having a stranded configuration that includes at least three turns; arranging a maintaining member on at least a portion of the stranded section to maintain the stranded configuration; and disposing a furcation body on at least a portion of the maintaining member; wherein an end of the outer jacket and the stranded section define a furcation point, and the optical fibers are free to move within their respective buffer tubes except for at the furcation point because the stranded configuration of the stranded section immobilizes the optical fibers within their respective buffer tubes.
A method for generating a knowledge base configured to identify and/or predict a malfunction of a medical device, wherein the medical device includes electrical and/or mechanical components as well as a medical device software, wherein in operation of the medical device, the medical device software generates warning messages based on output parameters measured at the medical device, wherein the method comprises the steps: (a) providing virtual components, wherein each virtual component corresponds to a component of the medical device; (b) creating a virtual model of the medical device as digital twin by using the virtual components; (c) rendering at least one virtual output parameter of the virtual model based on simulating a malfunction of at least one virtual component, (d) providing the at least one virtual output parameter to the medical device software; (e) correlating the response of the medical device software to the at least one virtual output parameter, in particular any warning message generated by the medical device software, to the simulated malfunction of the at least one virtual component; wherein steps (c) to (e) are repeated for a plurality of different simulated malfunctions, and wherein the simulated malfunctions and correlated responses of the medical device software are used in the building of a knowledge base on the medical device, wherein the knowledge base is used for identifying or isolating a malfunction from the warning message. (a) providing virtual components, wherein each virtual component corresponds to a component of the medical device; (b) creating a virtual model of the medical device as digital twin by using the virtual components; (c) rendering at least one virtual output parameter of the virtual model based on simulating a malfunction of at least one virtual component, (d) providing the at least one virtual output parameter to the medical device software; (e) correlating the response of the medical device software to the at least one virtual output parameter, in particular any warning message generated by the medical device software, to the simulated malfunction of the at least one virtual component; wherein steps (c) to (e) are repeated for a plurality of different simulated malfunctions, and wherein the simulated malfunctions and correlated responses of the medical device software are used in the building of a knowledge base on the medical device, wherein the knowledge base is used for identifying or isolating a malfunction from the warning message.
A blind detection method, applied to a User Equipment, UE, comprising: receiving a target signal transmitted from a network device; and wherein the method is characterized by comprising: based on the target signal, performing blind detection on Physical Downlink Control Channel, PDCCH, or maintaining a sleep state when detecting the PDCCH; wherein the target signal comprises a target sequence; wherein the target sequence comprises: a sequence, which is generated by modulating at least two of the maximum linear feedback shift register sequence, Gold sequence and Zadoff-Chu, ZC, sequence; the target sequence is a sequence associated with a cell Identifier, ID. receiving a target signal transmitted from a network device; and wherein the method is characterized by comprising: based on the target signal, performing blind detection on Physical Downlink Control Channel, PDCCH, or maintaining a sleep state when detecting the PDCCH; wherein the target signal comprises a target sequence; wherein the target sequence comprises: a sequence, which is generated by modulating at least two of the maximum linear feedback shift register sequence, Gold sequence and Zadoff-Chu, ZC, sequence; the target sequence is a sequence associated with a cell Identifier, ID. based on the target signal, performing blind detection on Physical Downlink Control Channel, PDCCH, or maintaining a sleep state when detecting the PDCCH; wherein the target signal comprises a target sequence; wherein the target sequence comprises: a sequence, which is generated by modulating at least two of the maximum linear feedback shift register sequence, Gold sequence and Zadoff-Chu, ZC, sequence; the target sequence is a sequence associated with a cell Identifier, ID.
A fuse module comprising: an electrically insulating base; a busbar disposed on a top surface of the base and comprising a fuse element and first and second terminal portions (26a,26b) extending from opposite ends of the fuse element, the fuse element extending over a cavity formed in the top surface of the base; a pyrotechnic interrupter disposed atop the base, the PI comprising: a piston disposed within a shaft above the fuse element: a first pyrotechnic ignitor coupled to a controller, the first pyrotechnic ignitor configured to detonate and force the piston through the fuse element upon receiving an initiation signal from the controller; and a second pyrotechnic ignitor coupled to the busbar by a pair of leads (52a,52b), the second pyrotechnic ignitor configured to detonate and force the piston through the fuse element upon an increase in voltage across the leads, wherein the leads extend through the shaft and across a path of the piston and are configured to be severed by the piston upon detonation of the first pyrotechnic ignitor or upon detonation of the second pyrotechnic ignitor. an electrically insulating base; a busbar disposed on a top surface of the base and comprising a fuse element and first and second terminal portions (26a,26b) extending from opposite ends of the fuse element, the fuse element extending over a cavity formed in the top surface of the base; a pyrotechnic interrupter disposed atop the base, the PI comprising: a piston disposed within a shaft above the fuse element: a first pyrotechnic ignitor coupled to a controller, the first pyrotechnic ignitor configured to detonate and force the piston through the fuse element upon receiving an initiation signal from the controller; and a second pyrotechnic ignitor coupled to the busbar by a pair of leads (52a,52b), the second pyrotechnic ignitor configured to detonate and force the piston through the fuse element upon an increase in voltage across the leads, wherein the leads extend through the shaft and across a path of the piston and are configured to be severed by the piston upon detonation of the first pyrotechnic ignitor or upon detonation of the second pyrotechnic ignitor. a first pyrotechnic ignitor coupled to a controller, the first pyrotechnic ignitor configured to detonate and force the piston through the fuse element upon receiving an initiation signal from the controller; and a second pyrotechnic ignitor coupled to the busbar by a pair of leads (52a,52b), the second pyrotechnic ignitor configured to detonate and force the piston through the fuse element upon an increase in voltage across the leads, wherein the leads extend through the shaft and across a path of the piston and are configured to be severed by the piston upon detonation of the first pyrotechnic ignitor or upon detonation of the second pyrotechnic ignitor.
A diagnostic ultrasound system which is selectively operable in one of a plurality of operating modes for the conduct of one of a plurality of different imaging procedures comprising: a connector for connecting an ultrasound probe to the system for use in imaging; an image display screen; and a touch-sensitive user control panel comprising a smooth top surface formed by a sheet of transparent material, wherein the control panel further comprises a plurality of control graphics located on the underside of the sheet at fixed positions corresponding to positions of touch-actuated user controls provided by the control panel in use, the control graphics being surrounded by a dark opaque color, a barrier layer below the control graphics, having pockets or depressions behind areas of each of the different user controls, the pockets or depressions defining illumination areas confined to said fixed positions of the user controls, the illumination areas containing selectively illuminated light sources, and an illumination controller coupled to the light sources, wherein the light sources for illuminating different groups of user controls are controlled to be illuminated during different operating modes or imaging procedures in accordance with the need for the controls during a selected mode or procedure, with the illumination of unneeded user controls being extinguished such that the unneeded controls are substantially invisible to a user by reason of the dark opaque color. a connector for connecting an ultrasound probe to the system for use in imaging; an image display screen; and a touch-sensitive user control panel comprising a smooth top surface formed by a sheet of transparent material, wherein the control panel further comprises a plurality of control graphics located on the underside of the sheet at fixed positions corresponding to positions of touch-actuated user controls provided by the control panel in use, the control graphics being surrounded by a dark opaque color, a barrier layer below the control graphics, having pockets or depressions behind areas of each of the different user controls, the pockets or depressions defining illumination areas confined to said fixed positions of the user controls, the illumination areas containing selectively illuminated light sources, and an illumination controller coupled to the light sources, wherein the light sources for illuminating different groups of user controls are controlled to be illuminated during different operating modes or imaging procedures in accordance with the need for the controls during a selected mode or procedure, with the illumination of unneeded user controls being extinguished such that the unneeded controls are substantially invisible to a user by reason of the dark opaque color.
A motorized assembly for mounting on a frame of a light fixture, comprising: a central housing (31, 32;31',32') having a first exterior surface and a second exterior surface, the second exterior surface defining an aperture in said central housing; the central housing including a first mounting device configured to engage with and mount on the frame to enable rotation of the central housing about a first axis of rotation; a first drive mechanism (33;33'), proximate the first exterior surface, engaged with the first mounting device to enable rotation of the central housing about the first axis of rotation when the central housing is engaged with the frame; and a second drive mechanism (33;33'), proximate the second exterior surface, adapted for engagement with a second mounting device; characterized in that the central housing further includes an interior region between the first and second exterior surfaces, the first and second drive mechanism (33;33') being disposed within the interior region of the central housing. a central housing (31, 32;31',32') having a first exterior surface and a second exterior surface, the second exterior surface defining an aperture in said central housing; the central housing including a first mounting device configured to engage with and mount on the frame to enable rotation of the central housing about a first axis of rotation; a first drive mechanism (33;33'), proximate the first exterior surface, engaged with the first mounting device to enable rotation of the central housing about the first axis of rotation when the central housing is engaged with the frame; and a second drive mechanism (33;33'), proximate the second exterior surface, adapted for engagement with a second mounting device; characterized in that the central housing further includes an interior region between the first and second exterior surfaces, the first and second drive mechanism (33;33') being disposed within the interior region of the central housing.
A method performed by a user equipment, UE, configured with a E-UTRA-NR dual connectivity, EN-DC, in a wireless communication system, the method comprising: receiving, from a first network node, an LTE or NR radio resource configuration, RRC, reconfiguration message comprising an MCG to SCG bearer type change request and an indication to re-establish MCG and SCG RLC entity for radio bearer, the indication including one or more operations to be performed on a master node, MN, RLC entity, a secondary node, SN, RLC entity and a PDCP entity at the UE; identifying to change a bearer type of a configured radio bearer for the UE, based on the received MCG to SCG bearer type change request; performing the one or more operations based on the indication to re-establish MCG and SCG RLC entity, wherein the first network node is an E-UTRAN node and is the master node, MN, wherein a second network node is a New Radio, NR, node and is the secondary node, SN, and wherein the one or more operations comprise re-establishing a first RLC entity, and then releasing the first RLC entity and establishing the second RLC entity, the first RLC entity being associated with the first network node and the second RLC entity being associated with the second network node. receiving, from a first network node, an LTE or NR radio resource configuration, RRC, reconfiguration message comprising an MCG to SCG bearer type change request and an indication to re-establish MCG and SCG RLC entity for radio bearer, the indication including one or more operations to be performed on a master node, MN, RLC entity, a secondary node, SN, RLC entity and a PDCP entity at the UE; identifying to change a bearer type of a configured radio bearer for the UE, based on the received MCG to SCG bearer type change request; performing the one or more operations based on the indication to re-establish MCG and SCG RLC entity, wherein the first network node is an E-UTRAN node and is the master node, MN, wherein a second network node is a New Radio, NR, node and is the secondary node, SN, and wherein the one or more operations comprise re-establishing a first RLC entity, and then releasing the first RLC entity and establishing the second RLC entity, the first RLC entity being associated with the first network node and the second RLC entity being associated with the second network node.
A multi-mode phased array antenna, MPAA, having at least two modes of operation, wherein a first mode of operation produces a first radiation pattern having a main-beam and a second mode of operation produces a second radiation pattern having a second beam, the MPAA comprising: a plurality of radiating elements arranged as an array of radiating elements, and a controller in signal communication with the plurality of radiating elements, wherein the controller is configured to excite the plurality of radiating elements to produce the first radiation pattern having the main-beam in the first mode of operation and the second radiation pattern having the second beam in the second mode of operation, wherein the second beam is wider than the main-beam; and wherein the second radiation pattern approximates a radiation pattern of a single radiating element (108, 110, 112, 114, 116, 118) of the plurality of radiating elements, wherein the controller is also configured to switch between the first mode operation and the second mode of operation, wherein the controller is configured to excite the plurality of radiating elements by determining a plurality of excitation signals for the plurality of radiating elements and wherein the plurality of excitation signals for the second radiation pattern are determined by utilizing a truncated regular series expansion of Bessel functions for an electromagnetic, EM, field of a single point source and equating the truncated regular series expansion of Bessel functions for EM field to an array response for the MPAA. a plurality of radiating elements arranged as an array of radiating elements, and a controller in signal communication with the plurality of radiating elements, wherein the controller is configured to excite the plurality of radiating elements to produce the first radiation pattern having the main-beam in the first mode of operation and the second radiation pattern having the second beam in the second mode of operation, wherein the second beam is wider than the main-beam; and wherein the second radiation pattern approximates a radiation pattern of a single radiating element (108, 110, 112, 114, 116, 118) of the plurality of radiating elements, wherein the controller is also configured to switch between the first mode operation and the second mode of operation, wherein the controller is configured to excite the plurality of radiating elements by determining a plurality of excitation signals for the plurality of radiating elements and wherein the plurality of excitation signals for the second radiation pattern are determined by utilizing a truncated regular series expansion of Bessel functions for an electromagnetic, EM, field of a single point source and equating the truncated regular series expansion of Bessel functions for EM field to an array response for the MPAA.
A microsensor (210, 310, 410) comprising a first electrode (211, 311,411) and a second electrode (212, 312, 412), each electrode comprising a plurality of parallel tracks (222, 322, 422), each track comprising a connected end and a free end, each track extending from a strip (223, 323, 423), the strip connecting the tracks at their connected ends, the tracks of the two electrodes being offset and in mirror symmetry so that the tracks of the two electrodes are interdigitated and comprise between each pair of interdigitated tracks an assembly of nanoparticles in a ligand, wherein each track (222, 322, 422) extending from the strip (223, 323, 423) comprises at least one change of direction.
A system for curing and/or inspecting a pipeline lining positioned in a pipeline, the pipeline lining comprising an outer plastics material layer and an inner fibre composite layer, the fibre composite layer comprising a plastics material which is to be cured and/or which is at least partially cured, wherein the system comprises at least one high-frequency unit which comprises at least one microwave-generator unit and at least one microwave-transmitting antenna for curing a plastics material which is to be cured, at least the at least one microwave-transmitting antenna being movable in the pipeline by means of a transporting device, characterised in that the at least one microwave-generator unit is a solid-state microwave-generator unit. at least one high-frequency unit which comprises at least one microwave-generator unit and at least one microwave-transmitting antenna for curing a plastics material which is to be cured, at least the at least one microwave-transmitting antenna being movable in the pipeline by means of a transporting device, characterised in that the at least one microwave-generator unit is a solid-state microwave-generator unit.