mhurhangee/ep-ind-claims huggingface dataset:
A heddle (1; 1001; 2001; 3001) for guiding a warp yarn for a loom, the heddle extending lengthwise along a longitudinal axis and comprising: - a heddle body (10; 1010; 2010; 3010) including at least one strand (4; 1004; 2004; 3004), and - at least one eye (2; 1002; 2002; 3002) including at least one housing (26, 28A, 28B; 1026; 2026, 2028; 3026) and an eyelet for passage of the warp yarn, characterized in that: - the heddle body (10; 1010; 2010; 3010) includes at least one housing (46A, 46B, 46C; 1046; 2046; 3046), and - the housing (26, 28A, 28B; 1026; 2026, 2028; 3026) of the eye (2; 1002; 2002; 3002) and the housing (46A, 46B, 46C; 1046; 2046; 3046) of the heddle body (10; 1010; 2010, 3010) extend along a same axis (Y1, Z1) transverse to the longitudinal axis, - the housing (46A, 46B, 46C; 1046; 2046; 3046) of the heddle body (10; 1010; 2010, 3010) is across from the housing (26, 28A, 28B; 1026; 2026, 2028; 3026) of the eye (2; 1002; 2002; 3002), these housings together forming a pair of housings (31, 32, 33, 34, 35; 1003; 20031, 20032, 20033, 20034, 20035; 3003), and - an assembly member (61, 62, 63, 64, 65; 1006; 20061, 20062, 20063, 20064, 20065; 3006) made from solidified resin is positioned in the pair of housings (31, 32, 33, 34, 35; 1003; 20031, 20032, 20033, 20034, 20035; 3003). - a heddle body (10; 1010; 2010; 3010) including at least one strand (4; 1004; 2004; 3004), and - at least one eye (2; 1002; 2002; 3002) including at least one housing (26, 28A, 28B; 1026; 2026, 2028; 3026) and an eyelet for passage of the warp yarn, - the heddle body (10; 1010; 2010; 3010) includes at least one housing (46A, 46B, 46C; 1046; 2046; 3046), and - the housing (26, 28A, 28B; 1026; 2026, 2028; 3026) of the eye (2; 1002; 2002; 3002) and the housing (46A, 46B, 46C; 1046; 2046; 3046) of the heddle body (10; 1010; 2010, 3010) extend along a same axis (Y1, Z1) transverse to the longitudinal axis, - the housing (46A, 46B, 46C; 1046; 2046; 3046) of the heddle body (10; 1010; 2010, 3010) is across from the housing (26, 28A, 28B; 1026; 2026, 2028; 3026) of the eye (2; 1002; 2002; 3002), these housings together forming a pair of housings (31, 32, 33, 34, 35; 1003; 20031, 20032, 20033, 20034, 20035; 3003), and - an assembly member (61, 62, 63, 64, 65; 1006; 20061, 20062, 20063, 20064, 20065; 3006) made from solidified resin is positioned in the pair of housings (31, 32, 33, 34, 35; 1003; 20031, 20032, 20033, 20034, 20035; 3003).
A semiconductor device (11, 111) comprising: a generally planar first semiconductor chip (10, 110) comprising a first side and second side opposite the first side, the first side associated with a first source conductive pad, the second side associated with a first drain conductive pad; a first gate pad overlying a portion of the first side; a first source terminal comprising a metallic strip assembly with a series of pocket chambers spaced apart from each other and partially filled with a phase-change material filling; a first drain terminal spaced apart from the first source terminal by a dielectric layer; and the first source terminal bonded to the first source conductive pad via a bonding interface material, characterized in that the first source terminal assembly comprises: an inner source section; an outer source section spaced apart from the inner source section and a parallel to the inner source section; a plurality of conductive vertically-extending source stem sections that extend between the inner source section and the outer source section, wherein each of the stem sections comprise a metallic strip with one or more pocket chambers partially filled with a phase-change material filling. a generally planar first semiconductor chip (10, 110) comprising a first side and second side opposite the first side, the first side associated with a first source conductive pad, the second side associated with a first drain conductive pad; a first gate pad overlying a portion of the first side; a first source terminal comprising a metallic strip assembly with a series of pocket chambers spaced apart from each other and partially filled with a phase-change material filling; a first drain terminal spaced apart from the first source terminal by a dielectric layer; and the first source terminal bonded to the first source conductive pad via a bonding interface material, characterized in that the first source terminal assembly comprises: an inner source section; an outer source section spaced apart from the inner source section and a parallel to the inner source section; a plurality of conductive vertically-extending source stem sections that extend between the inner source section and the outer source section, wherein each of the stem sections comprise a metallic strip with one or more pocket chambers partially filled with a phase-change material filling. an inner source section; an outer source section spaced apart from the inner source section and a parallel to the inner source section; a plurality of conductive vertically-extending source stem sections that extend between the inner source section and the outer source section, wherein each of the stem sections comprise a metallic strip with one or more pocket chambers partially filled with a phase-change material filling.
A flame detector comprising: an infrared detector; a first window formed of germanium and disposed over the infrared detector, wherein the first window rejects light having a wavelength less than approximately 2.6 μm; a second window disposed over the infrared detector, wherein the second window is adapted to reject light having a wavelength greater than approximately 4.8 μm; and a band reject structure disposed over the infrared detector and supported by the second window or the first window, wherein the band reject structure is adapted to reject a portion of light having a wavelength greater than approximately 3.2 μm and less than approximately 4.3 μm. an infrared detector; a first window formed of germanium and disposed over the infrared detector, wherein the first window rejects light having a wavelength less than approximately 2.6 μm; a second window disposed over the infrared detector, wherein the second window is adapted to reject light having a wavelength greater than approximately 4.8 μm; and a band reject structure disposed over the infrared detector and supported by the second window or the first window, wherein the band reject structure is adapted to reject a portion of light having a wavelength greater than approximately 3.2 μm and less than approximately 4.3 μm.
A gas turbine engine assembly connectable to a pylon structure for mounting the gas turbine engine to an aircraft, the assembly having a frame supporting at least one accessory (35, 50) independently of the gas turbine engine, the frame being attachable to the pylon at forward and rearward engine mounting locations (16, 18), the frame comprising at least one hollow tube (30, 32, 38), the at least one hollow tube (30, 32, 38) being fluid tight, characterised in that the at least one hollow tube (30, 32, 38) being evacuated or containing pressurised fluid and a pressure sensor being arranged to detect a change in the pressure in the at least one hollow tube (30, 32, 38) to determine if there is a leak in the at least one hollow tube (30, 32, 38) and hence if the frame is damaged.
A method for preparing a vulcanizable composition of matter, the method comprising: i. mixing rubber, silica, silica coupling agent, a strong base, and nicotinamide to form a masterbatch; ii. introducing a curative to the masterbatch; and iii. mixing the curative into the masterbatch to form a vulcanizable composition of matter wherein the strong base is a base which has a pK a of greater than about 10. i. mixing rubber, silica, silica coupling agent, a strong base, and nicotinamide to form a masterbatch; ii. introducing a curative to the masterbatch; and iii. mixing the curative into the masterbatch to form a vulcanizable composition of matter
An agent for use in the treatment of a disease by improving insulin resistance, wherein said disease is selected from abnormal glucose tolerance and hyperinsulinemia, wherein said agent contains a compound selected from the group consisting of 4-methylcholest-7-en-3-ol, 4-methylergost-7-en-3-ol, and 4-methylstigmast-7-en-3-ol.
Method for producing a weighing system, in the context of which: - first a blank is modeled, said blank comprising + a base having at least one wall, and + a lever which is hinged to the base via thin-section joints and is secured to the base via material bridges, said lever having a lever region adjacent to the wall, wherein the wall and the lever region adjacent thereto are each provided with an aperture (32, 34), said apertures being aligned with each other, and - then the material bridges are cut open, characterized in that, before the material bridges are cut open, a fixing bolt is pushed into the apertures (32, 34) such that it engages in the apertures (32, 34) with a form fit while the material bridges are being cut open. - first a blank is modeled, said blank comprising + a base having at least one wall, and + a lever which is hinged to the base via thin-section joints and is secured to the base via material bridges, said lever having a lever region adjacent to the wall, wherein the wall and the lever region adjacent thereto are each provided with an aperture (32, 34), said apertures being aligned with each other, and + a base having at least one wall, and + a lever which is hinged to the base via thin-section joints and is secured to the base via material bridges, said lever having a lever region adjacent to the wall, - then the material bridges are cut open,
A method of measuring capacity on a route in a network configured to carry reliable packet traffic, reliable traffic being traffic in which a response packet is sent in response to at least one transmitted packet, the method comprising: - identifying and matching at a network node part way along the route, at least two sets, the at least two sets comprising at least a first set and a second set, wherein a set comprises at least one first (101, 102) packet and at least one second packet (REP1, REP2) transmitted on the route, one packet of the set being a response packet, wherein the at least one first packet is transmitted in a first direction and the at least one second packet is transmitted on the route in a second direction, the first direction being the reverse direction to the second direction; - registering times for the at least two sets; and - calculating a capacity of the route dependent on packet size and registered times for the at least two sets. - identifying and matching at a network node part way along the route, at least two sets, the at least two sets comprising at least a first set and a second set, wherein a set comprises at least one first (101, 102) packet and at least one second packet (REP1, REP2) transmitted on the route, one packet of the set being a response packet, wherein the at least one first packet is transmitted in a first direction and the at least one second packet is transmitted on the route in a second direction, the first direction being the reverse direction to the second direction; - registering times for the at least two sets; and - calculating a capacity of the route dependent on packet size and registered times for the at least two sets.
Display and control element for a household appliance comprising: a transparent input element; a display element mounted behind the input element; and a marker element (20, 26; 30, 32) which divides the area of the input element into at least one touchscreen region through which the display element is visible, and at least one switching region in which the display element is not visible; wherein the marker element comprises a blind (26; 30, 32) located at the rear side of the input element which covers the switching region. a transparent input element; a display element mounted behind the input element; and a marker element (20, 26; 30, 32) which divides the area of the input element into at least one touchscreen region through which the display element is visible, and at least one switching region in which the display element is not visible;
Calibrating unit for a measuring device to be connected with a coaxial plug-type connector, having a housing and an inner conductor, wherein the inner conductor is formed so as to be centred within an opening of the housing, wherein the calibrating unit has a connecting element, wherein the connecting element is inserted in the opening of the housing and wherein the connecting element is formed so as to be elastic, wherein the connecting element accommodates the inner conductor, wherein the connecting element supports the inner conductor elastically relative to the housing, wherein the connecting element is formed so as to be funnel-shaped and comprises a plurality of seamlessly connected part segments (10, 11, 13, 14), wherein a first part segment of the connecting element is embodied in the form of a flange or hood and is glued and/or pressed and/or soldered in electrically conducting manner to the housing, wherein the housing is electrically conductive or at least covered with an electrically conductive coating and wherein the connecting element is composed of an electrically conductive material.
A solar cell with a flexible substrate and a quantum well structure, wherein polyimide is used as a flexible substrate, an AlN insulating layer is above the substrate, an Al back electrode is above the AlN insulating layer, a Ga-doped ZnO transparent conductive film used as a buffer layer is above the Al back electrode, an N-type hydrogenated nano-crystalline silicon (nc-Si:H) film is above the GZO transparent conductive film, an intrinsic film of In x Ga 1-x N is above the N-type nc-Si:H film, a P-type nc-Si:H film is above the intrinsic film of In x Ga 1-x N, another GZO transparent conductive film is above the P-type nc-Si:H film, and an Al metal electrode is above the GZO transparent conductive film,the specific structure being Al electrode/GZO/P-type nc-Si:H/intrinsic film of In x Ga 1-x N/N-type nc-Si:H/GZO/Al back electrode/AIN insulating layer/PI flexible substrate, wherein the intrinsic film of In x Ga 1-x N has an adjustable bandgap width and a quantum well structure.
Method for monitoring the status of an X-ray tube assembly for an X-ray facility, which assembly includes an X-ray source, comprising the following steps: - determining input information describing the current status of the X-ray source by at least one determination means, - deriving status information to be issued to a user, using the input information by means of a processing means, and - displaying the status information on an indicator device, in particular on a display, characterised in that condition-related information describing the transportation conditions during transportation is used as input information. - determining input information describing the current status of the X-ray source by at least one determination means, - deriving status information to be issued to a user, using the input information by means of a processing means, and - displaying the status information on an indicator device, in particular on a display, characterised in that condition-related information describing the transportation conditions during transportation is used as input information.
A method of manufacturing a lithium ion conductive solid electrolyte, comprising: (a) a step of preparing an object to be processed including a crystalline material, that includes alkali metal other than lithium and whose ionic conductivity at room temperature is greater than or equal to 1 × 10 -13 S/cm, the crystalline material having a crystal structure of mica type or NASICON type; and (b) a step of performing an ion-exchange process on the object to be processed in molten salt including lithium ions. (a) a step of preparing an object to be processed including a crystalline material, that includes alkali metal other than lithium and whose ionic conductivity at room temperature is greater than or equal to 1 × 10 -13 S/cm, the crystalline material having a crystal structure of mica type or NASICON type; and (b) a step of performing an ion-exchange process on the object to be processed in molten salt including lithium ions.
Washing machine with an outer tub, a drum arranged therein for receiving items of laundry, a heating facility, a pump system, a drive motor, a water supply apparatus and a control or regulating facility, wherein the pump system comprises a pump housing with a pump down connecting piece, a pump connecting piece and an intake port, wherein a pump down motor, a pump motor, and a screw closure to be opened, to which an essentially cylindrical filter insert which can be removed from the washing machine is attached and which has at least one opening for the passage of aqueous liquid along its periphery, are arranged on the pump housing, so that the pump housing comprises an essentially cylindrical suction chamber, a pump down pressure chamber and a pump pressure chamber, and wherein the pump down motor is arranged so as to convey an aqueous liquid out of the essentially cylindrical suction chamber through the filter insert via the pump down pressure chamber and the pump down connecting piece into a pump down line and the pump motor is arranged in order to convey the aqueous liquid out of the essentially cylindrical suction chamber through the filter insert via the pump down pressure chamber and the pump connecting piece into a pump line, wherein the essentially cylindrical filter insert has the screw closure to be opened at a first end, a pump down seal for sealing the pump down pressure chamber against the essentially cylindrical suction chamber at a second end and a pump opening to the pump pressure chamber at its periphery, characterised in that the periphery has a shield enclosing the pump opening, said shield being surrounded by a labyrinth seal and sealing the pump pressure chamber against the suction chamber, wherein the shield has a connection area, by way of which the shield is connected directly or indirectly to the first end of the cylindrical filter insert.
An ultrasound processing system comprising: a plurality of controllable input processing blocks, each implementing a discrete time analog signal processing stage for processing one or more corresponding input signals representing ultrasound signals, wherein each input processing block comprises: a first delay stage, controllable to introduce relative delays between signals, wherein the relative delays are a multiple of the sampling period of the signal processing stage; and a second delay stage, controllable to introduce relative delays between signals, wherein the relative delays are a fraction of the sampling period of the signal processing stage; wherein, for each input processing block: the fractional delays of the second delay stage are implemented using a Finite Impulse Response, FIR, filter comprising a plurality of capacitive elements and a plurality of switches for controlling transfer of charge between the capacitive elements; an input of the second delay stage is coupled to an output of the first delay stage, such that the plurality of capacitive elements is charged based on the output of the first delay stage; and characteristics of the FIR filter are controllable according to sequencing of operation of the switches. a plurality of controllable input processing blocks, each implementing a discrete time analog signal processing stage for processing one or more corresponding input signals representing ultrasound signals, wherein each input processing block comprises: a first delay stage, controllable to introduce relative delays between signals, wherein the relative delays are a multiple of the sampling period of the signal processing stage; and a second delay stage, controllable to introduce relative delays between signals, wherein the relative delays are a fraction of the sampling period of the signal processing stage; wherein, for each input processing block: the fractional delays of the second delay stage are implemented using a Finite Impulse Response, FIR, filter comprising a plurality of capacitive elements and a plurality of switches for controlling transfer of charge between the capacitive elements; an input of the second delay stage is coupled to an output of the first delay stage, such that the plurality of capacitive elements is charged based on the output of the first delay stage; and characteristics of the FIR filter are controllable according to sequencing of operation of the switches. the fractional delays of the second delay stage are implemented using a Finite Impulse Response, FIR, filter comprising a plurality of capacitive elements and a plurality of switches for controlling transfer of charge between the capacitive elements; an input of the second delay stage is coupled to an output of the first delay stage, such that the plurality of capacitive elements is charged based on the output of the first delay stage; and characteristics of the FIR filter are controllable according to sequencing of operation of the switches.
An organic electroluminescent device, comprising: a first electrode layer formed on a substrate; an organic functional layer, disposed on the first electrode layer; and a second electrode layer, disposed on the organic functional layer; wherein, the organic electroluminescent device further comprises: an inorganic layer, disposed on the second electrode layer, wherein the inorganic layer is a titanium dioxide layer or a silicon carbide layer, and a thickness of the inorganic layer is 10nm∼20nm; and a cover layer, disposed between the second electrode layer and the inorganic layer, wherein the cover layer is formed of organic material, and characterized in that, the thickness of the cover layer is 40nm∼80nm, such that micro-cavity structures of the inorganic layer and the organic material together improve color purity of the organic electroluminescent device and suppress blue and violet lights that do harm to human eyes. a first electrode layer formed on a substrate; an organic functional layer, disposed on the first electrode layer; and a second electrode layer, disposed on the organic functional layer; wherein, the organic electroluminescent device further comprises: an inorganic layer, disposed on the second electrode layer, wherein the inorganic layer is a titanium dioxide layer or a silicon carbide layer, and a thickness of the inorganic layer is 10nm∼20nm; and a cover layer, disposed between the second electrode layer and the inorganic layer, wherein the cover layer is formed of organic material, and an inorganic layer, disposed on the second electrode layer, wherein the inorganic layer is a titanium dioxide layer or a silicon carbide layer, and a thickness of the inorganic layer is 10nm∼20nm; and a cover layer, disposed between the second electrode layer and the inorganic layer, wherein the cover layer is formed of organic material, and characterized in that, the thickness of the cover layer is 40nm∼80nm, such that micro-cavity structures of the inorganic layer and the organic material together improve color purity of the organic electroluminescent device and suppress blue and violet lights that do harm to human eyes.