mhurhangee/ep-ind-claims huggingface dataset:
An electrical receptacle connector adapted to receive an electrical cable having plural conductors (16a-16d) and an elongated, thin strength member disposed in and extending along a portion of the length of the electrical cable, said electrical receptacle connector comprising: a bushing adapted to receive the electrical cable and having a first threaded end portion; a shell adapted to receive the electrical cable and having a second threaded end portion coupled to the first threaded end portion of said bushing; and a split washer adapted to be connected to said strength member and having an open inner portion and a partially circular peripheral portion, wherein the open inner portion of said split washer is adapted for said plural conductors (16a-16d) to be disposed in and extended through the open inner portion of said split washer and the partially circular peripheral portion of said split washer is disposed in contact with the first threaded end portion of said bushing, and adapted such that tightening of the coupling between said bushing's first threaded end portion and said shell's second threaded end portion urges said split washer into tight fitting engagement with said shell applying increased tension upon said strength member while removing tension from the plural conductors (16a-16d). a bushing adapted to receive the electrical cable and having a first threaded end portion; a shell adapted to receive the electrical cable and having a second threaded end portion coupled to the first threaded end portion of said bushing; and a split washer adapted to be connected to said strength member and having an open inner portion and a partially circular peripheral portion, wherein the open inner portion of said split washer is adapted for said plural conductors (16a-16d) to be disposed in and extended through the open inner portion of said split washer and the partially circular peripheral portion of said split washer is disposed in contact with the first threaded end portion of said bushing, and adapted such that tightening of the coupling between said bushing's first threaded end portion and said shell's second threaded end portion urges said split washer into tight fitting engagement with said shell applying increased tension upon said strength member while removing tension from the plural conductors (16a-16d).
Power electronic switching device comprising a substrate, a power semiconductor component arranged thereon, comprising a connection device and comprising a pressure device, wherein the substrate has conductor tracks electrically insulated from one another, and a power semiconductor component is arranged on one of the conductor tracks, wherein an adhesive substance is arranged with respect to the power semiconductor component and with respect to an assigned conductor track for adhesively fixing the power semiconductor component on said conductor track, wherein the connection device is embodied as a film composite comprising an electrically conductive film (30, 34) and an electrically insulating film and thus forms a first and a second main surface (300, 340), wherein the switching device is connected in a circuit-conforming manner internally by means of the connection device, and wherein a contact area of the first main surface of the power semiconductor component is connected to a first contact area of an assigned conductor track of the substrate in a force-locking and electrically conductive manner, wherein the power semiconductor component is connected by its second main surface to an assigned contact area of the first main surface of the connection device in a force-locking and electrically conductive manner, for this purpose the pressure device has a pressure body and a pressure element projecting therefrom in the direction of the power semiconductor component, wherein the pressure element presses onto a first section of the second main surface of the film composite and in this case said first section is arranged within the area of the power semiconductor component in projection along the direction of the normal to the power semiconductor component.
An ethylene polymer composition obtainable by a process comprising polymerizing ethylene, alone, or with a comonomer, to produce an ethylene polymer in a first stage, transferring the polymer produced in the first stage into a second stage, in which a second stage ethylene is polymerized, alone, or with a comonomer, in the presence of the polymer produced in the first stage, and wherein the first stage is a slurry polymerization stage, and the polymerization in the first stage is carried out in the presence of a catalyst system comprising: (a) a solid catalyst precursor comprising a transition metal selected from titanium and vanadium; magnesium, a halide, an electron donor, and a solid particulate material comprising an inorganic oxide, and (b) an organoaluminium compound; and wherein the median particle diameter of the solid catalyst precursor, based upon the total volume of solid catalyst precursor, D 50, is from 1 to 13 micrometers, said composition having a density of 0.915 to 0.970 g/cm 3 and an MI 5 of 0.02 to 3.5 dg/min, and wherein the composition has (a) less than 6 gels per m 2 of a size greater than 800 micrometer, and less than 100 gels per m 2 of a size in the range from 400 to 800 micrometer, wherein the number and size of gels are determined on a 5 m 2 sample of a 50 micrometer thick cast film prepared from the ethylene polymer composition, and (b) a flexural Young's modulus, as measured on an Instron apparatus according to ISO 178, greater than 1340*{1-exp[-235*(density - 0.9451)]}. (a) less than 6 gels per m 2 of a size greater than 800 micrometer, and less than 100 gels per m 2 of a size in the range from 400 to 800 micrometer, wherein the number and size of gels are determined on a 5 m 2 sample of a 50 micrometer thick cast film prepared from the ethylene polymer composition, and (b) a flexural Young's modulus, as measured on an Instron apparatus according to ISO 178, greater than 1340*{1-exp[-235*(density - 0.9451)]}.
An electron beam melting and cutting composite 3D printing apparatus, comprising a box and an electron beam gun; characterized in that the box has a cavity in a vacuum state formed therein; the cavity is provided therein with a cutting structure, a first Y-direction guide rail and a Y-direction movable platform movably connected to the first Y-direction guide rail and movable along the first Y-direction guide rail; the electron beam gun is arranged outside the box, and has an emitting head configured for emitting an electron beam; the emitting head is formed in the cavity; the Y-direction movable platform is provided thereon with a Z-direction movable platform movable up and down with respect to Y-direction movable platform; the Z-direction movable platform is provided thereon with a powder spreading structure configured for spreading metal powder onto the Z-direction movable platform; the cutting structure is arranged at a side of the emitting head of the electron beam gun, and has a cutting head configured for cutting a structural component formed by melting the metal powder; a shielding case is arranged between the emitting head and the Z-direction movable platform, and an upper end of the shielding case is smaller than a lower end of the shielding case; a through-cavity running through the upper end and the lower end of the shielding case is defined in the shielding case; and the emitting head of the electron beam gun is inserted in an upper opening of the shielding case, and a lower opening of the shielding case is aligned with the Z-direction movable platform.
X-ray pulse source, being configured for generating X-ray pulses, including - an electron pulse source device comprising a photo-emitter device being adapted for photo-induced creation of free electron pulses and a driver device being adapted for creating electromagnetic driver pulses accelerating the electron pulses along an acceleration path, and - an electromagnetic interaction device comprising an electromagnetic pulse source device being adapted for creating electromagnetic pulses in an interaction section of the electromagnetic interaction device, wherein - the electron pulse source device and the electromagnetic interaction device are operable for generating the X-ray pulses by an interaction of the electron pulses and the electromagnetic pulses, characterized in that - the driver device includes a THz driver pulse source, which is configured for creating THz driver pulses. - an electron pulse source device comprising a photo-emitter device being adapted for photo-induced creation of free electron pulses and a driver device being adapted for creating electromagnetic driver pulses accelerating the electron pulses along an acceleration path, and - an electromagnetic interaction device comprising an electromagnetic pulse source device being adapted for creating electromagnetic pulses in an interaction section of the electromagnetic interaction device, wherein - the electron pulse source device and the electromagnetic interaction device are operable for generating the X-ray pulses by an interaction of the electron pulses and the electromagnetic pulses, - the driver device includes a THz driver pulse source, which is configured for creating THz driver pulses.
A thin film comprising, in atomic %: at least one of silicon, phosphorous, and boron in an amount that is at least 4% and not greater than 60%, preferably at about 10-50 %, more preferably at least 18% and at most 35%; nitrogen in an amount that is at least 10% and not greater than 70%, preferably at about 15-60%, more preferably at least 26% and at most 49%; oxygen in an amount that is at least 3% and not greater than 60%, preferably at about 5-50%, more preferably at least 7% and at most 40%; and characterised in that it comprises: a modifier element comprising calcium, and having a cationic field strength that is at least 1 and not greater than 13 Å -2, preferably at least 2 and not greater than 5.5 Å -2, the at least one modifier element present in an amount that is at least 0.1 % and not greater than 50%, preferably about 5-45%, more preferably at least 7% and at most 40%. at least one of silicon, phosphorous, and boron in an amount that is at least 4% and not greater than 60%, preferably at about 10-50 %, more preferably at least 18% and at most 35%; nitrogen in an amount that is at least 10% and not greater than 70%, preferably at about 15-60%, more preferably at least 26% and at most 49%; oxygen in an amount that is at least 3% and not greater than 60%, preferably at about 5-50%, more preferably at least 7% and at most 40%; and characterised in that it comprises: a modifier element comprising calcium, and having a cationic field strength that is at least 1 and not greater than 13 Å -2, preferably at least 2 and not greater than 5.5 Å -2, the at least one modifier element present in an amount that is at least 0.1 % and not greater than 50%, preferably about 5-45%, more preferably at least 7% and at most 40%.
A cross-linked albumin nanoparticle loaded with a plurality of molecules of a Gd 3+ -bearing chemical species, characterized in that the size of the nanoparticle is comprised between 50 nm and 80 nm and that the molecules of the Gd 3+ -bearing chemical species are encapsulated by albumin without covalent bonding.
An ultrasound catheter system for disrupting occlusions in blood vessels, the ultrasound catheter system comprising: an elongate flexible catheter body having a proximal end, a distal end and at least one lumen; an ultrasound transmission member extending longitudinally through the lumen of the catheter body and having a proximal end and a distal end; a distal head coupled with the distal end of the ultrasound transmission member and disposed adjacent the distal end of the catheter body; a sonic connector coupled with the proximal end of the ultrasound transmission member; a connector housing having a proximal end and a distal end, the distal end coupled with the proximal end of the catheter body, for housing the sonic connector and a proximal portion of the ultrasound transmission member and for preventing the ultrasound transmission member from rotating relative to the catheter body; and an ultrasound transducer device removably couplable with the sonic connector and the proximal end of the connector housing, wherein the ultrasound transducer device includes an ultrasound transducer housing comprising: at least one protrusion on a distal end of the ultrasound transducer housing; and a slideable collar for fitting over the at least one protrusion to press the protrusion against the connector housing, thereby further securing the ultrasound transducer housing to the connector housing. an elongate flexible catheter body having a proximal end, a distal end and at least one lumen; an ultrasound transmission member extending longitudinally through the lumen of the catheter body and having a proximal end and a distal end; a distal head coupled with the distal end of the ultrasound transmission member and disposed adjacent the distal end of the catheter body; a sonic connector coupled with the proximal end of the ultrasound transmission member; a connector housing having a proximal end and a distal end, the distal end coupled with the proximal end of the catheter body, for housing the sonic connector and a proximal portion of the ultrasound transmission member and for preventing the ultrasound transmission member from rotating relative to the catheter body; and an ultrasound transducer device removably couplable with the sonic connector and the proximal end of the connector housing, wherein the ultrasound transducer device includes an ultrasound transducer housing comprising: at least one protrusion on a distal end of the ultrasound transducer housing; and a slideable collar for fitting over the at least one protrusion to press the protrusion against the connector housing, thereby further securing the ultrasound transducer housing to the connector housing. at least one protrusion on a distal end of the ultrasound transducer housing; and a slideable collar for fitting over the at least one protrusion to press the protrusion against the connector housing, thereby further securing the ultrasound transducer housing to the connector housing.
A device for generating a plurality of images for supporting the characterization of skin lesions, the device comprising an illumination unit for selective incident illumination of an area of skin and direct coupling in of light into the area of skin, the illumination unit comprising a plurality of preferably similar LED chips (3a, 3b), a measuring unit for evaluating backscatter of the area of skin illuminated by the illumination unit, the measuring unit comprising a first sensor for detecting multispectral or hyperspectral image information and a second sensor for detecting RGB image information, a control unit for controlling the illumination unit and the measuring unit, and a processing and output unit for image generation based on the image information detected by the measuring unit, characterized in that the illumination unit has a first skin illumination area at an end portion of the illumination unit and a second incident illumination area spaced apart therefrom, in each of which a plurality of LED chips (3a, 3b) are preferably disposed, and the control unit is configured to control the illumination unit and the measuring unit to sequentially detect image information by incident illumination and direct coupling in of light. an illumination unit for selective incident illumination of an area of skin and direct coupling in of light into the area of skin, the illumination unit comprising a plurality of preferably similar LED chips (3a, 3b), a measuring unit for evaluating backscatter of the area of skin illuminated by the illumination unit, the measuring unit comprising a first sensor for detecting multispectral or hyperspectral image information and a second sensor for detecting RGB image information, a control unit for controlling the illumination unit and the measuring unit, and a processing and output unit for image generation based on the image information detected by the measuring unit, characterized in that the illumination unit has a first skin illumination area at an end portion of the illumination unit and a second incident illumination area spaced apart therefrom, in each of which a plurality of LED chips (3a, 3b) are preferably disposed, and the control unit is configured to control the illumination unit and the measuring unit to sequentially detect image information by incident illumination and direct coupling in of light.
A method for stretching a film, the method comprising: conveying the film into a stretching region; stretching the film to increase a transverse dimension of the film by greater than a factor of 4 by conveying the opposing edges of the film along generally diverging paths, wherein the generally diverging paths are configured and arranged to provide a machine direction draw ratio (MDDR) equal to the cosine of the divergence angle and a transverse direction draw ratio (TDDR) equal to the ratio of the current separation of the boundary trajectories to the initial separation of the boundary trajectories, based on the paths having the following relationship during the stretching for all of the draw: MDDR < TDDR − 1 / 2. conveying the film into a stretching region; stretching the film to increase a transverse dimension of the film by greater than a factor of 4 by conveying the opposing edges of the film along generally diverging paths, wherein the generally diverging paths are configured and arranged to provide a machine direction draw ratio (MDDR) equal to the cosine of the divergence angle and a transverse direction draw ratio (TDDR) equal to the ratio of the current separation of the boundary trajectories to the initial separation of the boundary trajectories, based on the paths having the following relationship during the stretching for all of the draw: MDDR < TDDR − 1 / 2.
A shaft type submergible hollow fiber membrane module, said membrane module having a cylindrical structure and comprising a hollow aerating shaft, an aerating head, hollow fiber membranes, an upper end head, a lower end head, an upper end cap, a lower end cap, a water-producing opening, an aerating gas inlet, a protective net and adhesive material; there is only one aerating head which is disposed around the hollow aerating shaft, facing the exposed part of the hollow membrane filaments near the lower end head; the water-producing opening is disposed at the top and the bottom of the membrane module; the aerating gas inlet is disposed at one or both ends of the hollow aerating shaft; and the protective net covers the periphery of the membrane module and thus separates the hollow fiber membrane from outside; and the shaft type submergible hollow fiber membrane further comprises a produced-water communicating tube which is opened at both ends, wherein the produced-water communicating tube, the hollow fiber membranes, the hollow aerating shaft, the upper end head, the lower end head and the adhesive material are fixed together; characterized in that the aerating head has a shape of central annulus with two or more radial aerating branch tubes disposed thereon; and the peripheral size of the aerating head is equivalent to the outer diameter of the upper end head or the lower end head.
A method employed by a first user equipment, UE, used as a small evolved NodeB, eNB, for a small cell, comprising: receiving a first long term evolution, LTE, packet from a second UE over the small cell; converting the first LTE packet into a second LTE packet, wherein a header of the first LTE packet which is associated to the second UE is replaced with a header of the second LTE packet associated to the first UE, wherein the header of the first LTE packet comprises an internet protocol, IP, address and a media access control, MAC, address associated with the second UE, and the header of the second LTE packet comprises an IP address and a MAC address associated with the first UE; and transmitting the second LTE packet to a macro eNB over a macro cell; receiving a LTE packet call from the macro eNB; and transmitting, in response to the LTE packet call, a first radio resource control, RRC, connection suspend request to the second UE (102, 202), to inform that the first UE (101, 201) is not available for a first time period indicated in the RRC connection suspend request; continuing serving the second UE after the first time period expires, without reestablishing the RRC connection. receiving a first long term evolution, LTE, packet from a second UE over the small cell; converting the first LTE packet into a second LTE packet, wherein a header of the first LTE packet which is associated to the second UE is replaced with a header of the second LTE packet associated to the first UE, wherein the header of the first LTE packet comprises an internet protocol, IP, address and a media access control, MAC, address associated with the second UE, and the header of the second LTE packet comprises an IP address and a MAC address associated with the first UE; and transmitting the second LTE packet to a macro eNB over a macro cell; receiving a LTE packet call from the macro eNB; and transmitting, in response to the LTE packet call, a first radio resource control, RRC, connection suspend request to the second UE (102, 202), to inform that the first UE (101, 201) is not available for a first time period indicated in the RRC connection suspend request; continuing serving the second UE after the first time period expires, without reestablishing the RRC connection.
A protection module, comprising a housing (23-29, 119-128, 202) having at least one component (13a, 13b, 15, 16, 18, 19, 103-107, 110-115, 116, 206) arranged therein, one or more gas feeds (30-36, 118, 203) arranged to introduce a gas flow into the housing (23-29, 119-128, 202), and at least one opening (37-47, 204) arranged to be a passage region for the first light of a first light source configured to illuminate a wafer to image a structure onto said wafer, and also arranged such that the gas flow emerges from the housing through the at least one opening (37-47, 204), characterized in that the protection module further comprises a plurality of second light sources (48-56, 130-143, 207-209) arranged outside the housing (23-29, 119-128, 202) at the at least one opening (37-47, 204), each one of the second light sources being arranged to emit a second light at a wavelength adapted to dissociate a contaminating substance prior to the contaminating substance penetrating into the housing, and further arranged so as to illuminate the at least one opening (37-47, 204) with the second light.