mhurhangee/ep-ind-claims huggingface dataset:
An electrical fuse fatigue assessment system (500, 550, 600) comprising: a controller (362, 364) configured to monitor a fuse fatigue parameter over a period of time while the electrical fuse is connected to an energized electrical power system; and a circuit connected in electrical parallel with the electrical fuse, the circuit including a current source configured for injecting current across the electrical fuse; wherein the controller (362, 364) is configured to measure a resistance of the electrical fuse based on the injected current across the electrical fuse; wherein the controller (362, 364) is configured to assess the monitored fuse fatigue parameter in reference to the measured resistance; and wherein, based on the assessed monitored fuse fatigue parameter, the controller (362, 364) is further configured to determine at least one of a consumed service life of the electrical fuse or a service life remaining of the electrical fuse. a controller (362, 364) configured to monitor a fuse fatigue parameter over a period of time while the electrical fuse is connected to an energized electrical power system; and a circuit connected in electrical parallel with the electrical fuse, the circuit including a current source configured for injecting current across the electrical fuse; wherein the controller (362, 364) is configured to measure a resistance of the electrical fuse based on the injected current across the electrical fuse; wherein the controller (362, 364) is configured to assess the monitored fuse fatigue parameter in reference to the measured resistance; and wherein, based on the assessed monitored fuse fatigue parameter, the controller (362, 364) is further configured to determine at least one of a consumed service life of the electrical fuse or a service life remaining of the electrical fuse.
A pressure gauge, comprising: a housing having an inlet; a helical tube arranged within the housing with a closed end and an open end, the open end of the helical tube in fluid communication with the inlet; and a compensation member arranged between the open end and the closed end of the helical tube, the compensation member fixed to the helical tube, wherein the compensation member and the helical tube are formed from materials (144, 154) having different coefficients of thermal expansion (160, 164) to limit movement of the closed end of the helical tube due to temperature change of a compressed fluid in fluid communication with the helical tube; and the compensation member is a bimetallic beam characterised in that: the compensation member is connected to the helical tube along an entirety of the helical tube. a housing having an inlet; a helical tube arranged within the housing with a closed end and an open end, the open end of the helical tube in fluid communication with the inlet; and a compensation member arranged between the open end and the closed end of the helical tube, the compensation member fixed to the helical tube, wherein the compensation member and the helical tube are formed from materials (144, 154) having different coefficients of thermal expansion (160, 164) to limit movement of the closed end of the helical tube due to temperature change of a compressed fluid in fluid communication with the helical tube; and the compensation member is a bimetallic beam characterised in that: the compensation member is connected to the helical tube along an entirety of the helical tube.
A pesticidal mixture comprising an effective amount of sabadilla alkaloids and azadirachtin, wherein the ratio of sabadilla alkaloids to azadirachtin is from about 1:2 to about 42:1, all abouts meaning +/- 10%.
An exposure apparatus for exposing a substrate with exposure light via a liquid, the exposure apparatus comprising: an optical member having an emitting surface from which the exposure light is in use emitted; a liquid immersion member that is disposed at at least a portion of surrounding of an optical path of the exposure light, that is configured to form a liquid immersion space of the liquid on an object movable at below the optical member, and that has a movable member including a recovery part and a first channel, the recovery part being configured to recover at least a portion of the liquid in the liquid immersion space, the first channel being configured to flow the liquid from the recovery part; and a deformation member (i) that is connected to the movable member, (ii) that has a second channel configured to flow the liquid from the first channel, and (iii) that has at least a portion which is deformable, wherein the moveable member is arranged to move, relative to an optical axis of the optical member, in a plane perpendicular to the optical axis. an optical member having an emitting surface from which the exposure light is in use emitted; a liquid immersion member that is disposed at at least a portion of surrounding of an optical path of the exposure light, that is configured to form a liquid immersion space of the liquid on an object movable at below the optical member, and that has a movable member including a recovery part and a first channel, the recovery part being configured to recover at least a portion of the liquid in the liquid immersion space, the first channel being configured to flow the liquid from the recovery part; and a deformation member (i) that is connected to the movable member, (ii) that has a second channel configured to flow the liquid from the first channel, and (iii) that has at least a portion which is deformable, wherein the moveable member is arranged to move, relative to an optical axis of the optical member, in a plane perpendicular to the optical axis.
A gas turbine engine comprising a stator stage arranged in a core flow path that includes a vane that is configured to be retractable from the core flow path during operation of the gas turbine engine by an actuator assembly, wherein the core flow path extends in an axial direction, and the stator stage is arranged in a compressor section of the gas turbine engine; wherein the actuator assembly includes a screw operatively connected to the vane and a ring gear operatively connected to the screw, and the screw further comprises a fluid passage provided through the screw to communicate cooling fluid to the vane; wherein the stator stage includes a retractable set of vanes that includes the vane, and wherein the actuator assembly (86; 186; 286; 386) is configured to move the vanes in a generally radial direction between an extended position and a retracted position; and wherein the actuator assembly includes a motor configured to rotate the ring gear to move the vane between the extended and retracted positions (88, 90) with the screw. wherein the actuator assembly includes a screw operatively connected to the vane and a ring gear operatively connected to the screw, and the screw further comprises a fluid passage provided through the screw to communicate cooling fluid to the vane; wherein the stator stage includes a retractable set of vanes that includes the vane, and wherein the actuator assembly (86; 186; 286; 386) is configured to move the vanes in a generally radial direction between an extended position and a retracted position; and wherein the actuator assembly includes a motor configured to rotate the ring gear to move the vane between the extended and retracted positions (88, 90) with the screw.
A method of adjusting a screen magnification of an electronic device, the method comprising: displaying (S240, S250, S260) a Dots Per Inch, DPI, setting screen in order to adjust a screen magnification of an object that is to be displayed on a display unit of the electronic device, wherein the DPI setting screen is configured to display DPI upper and lower limits for the electronic device; receiving (S242, S252, S262) user selection of a DPI value between the DPI upper limit and the DPI lower limit through the DPI setting screen; calculating a screen magnification using the selected DPI value and a preset Device-Independent Pixel, DIP; changing a size of the object to correspond to the calculated screen magnification; and displaying the object according to the changed size. displaying (S240, S250, S260) a Dots Per Inch, DPI, setting screen in order to adjust a screen magnification of an object that is to be displayed on a display unit of the electronic device, wherein the DPI setting screen is configured to display DPI upper and lower limits for the electronic device; receiving (S242, S252, S262) user selection of a DPI value between the DPI upper limit and the DPI lower limit through the DPI setting screen; calculating a screen magnification using the selected DPI value and a preset Device-Independent Pixel, DIP; changing a size of the object to correspond to the calculated screen magnification; and displaying the object according to the changed size.
A two-layer fabric for the manufacturing of unwoven fabrics comprises an upper surface side fabric constituted by upper surface side warps (1U, 2U, 3U, 4U) and upper surface side wefts (1'u, 3'u, 5'u, 7'u), and a lower surface side fabric at least constituted by lower surface side warps (1D, 2D, 3D, 4D) and lower surface side wefts (1'd, 3'd, 5'd, 7'd), said upper surface side fabric and said lower surface side fabric are bound by weft binding yarns (2'b, 4'b, 6'b, 8'b), said weft binding yarns (2'b, 4'b, 6'b, 8'b) are woven so as to be arranged in an inner binding condition so as not to appear on the surface of the fabric, characterized in that said upper surface side warps (1U, 2U, 3U, 4U) and said upper surface side wefts (1'u, 3'u, 5'u, 7'u) are made of fluorine plastic, wherein said lower surface side warps (1D, 2D, 3D, 4D) and said lower surface side wefts (1'd, 3'd, 5'd, 7'd) and said weft binding yarns (2'b, 4'b, 6'b, 8'b) are formed by general yarn.
A generally planar unit (10, 115, 515, 615) having at least one illumination element (31; 531, 532, 533)) on an upper major surface (14, 514) thereof, circuitry for providing electrical power to the illumination element, the circuitry comprising at least one first sensor (16, 17; 516) for sensing the presence of an article on the major surface and over or adjacent to the illumination element, and a second sensor (45, 545, 645) for sensing the presence or movement of a person adjacent to the unit, the unit being configured such that at least one selected illumination element (31; 531, 532, 533) is illuminated only when both said first sensor (16, 17; 516) and said second sensor (45, 545, 645) are actuated.
A boiler system comprising an oxyfuel boiler in which a stream of oxygen and a fuel are combusted to generate a stream of flue gas, a flue gas compression unit for producing a stream of pressurized carbon dioxide rich flue gas, a flue gas condenser for condensing the cleaned flue gas, a pressure control system in which the pressure before the flue gas condenser is measured and controlled to at least one predetermined set value, wherein the pressure control system further comprises a pressure controlling device and a high pressure regulating device which controls an evacuation stream to operate in an evacuation mode based on a measured pressure value in the boiler system before the flue gas compression unit, and a flow control system in which the flow after the flue gas compression unit is measured and controlled to a predetermined set value, wherein the flow control system further comprises a flow controlling device and a flow regulating device which controls a bypass stream (38,40) to operate in a bypass mode based on a measured flow value in the boiler system after the flue gas compression unit.
A crystalline structure, wherein the crystalline structure is a molecular sieve having a chabazite framework consisting of thirty-six T-atoms selected from the group consisting of silicon, aluminum, and phosphorus; wherein the framework phosphorus is present as -PO 2 moieties, said framework silicon is present as -SiO 2 moieties, and framework aluminum is present as -AlO 2 moieties; wherein said molecular sieve comprises 1.0 to 5.0 mole percent of framework phosphorus based on the total moles of framework silicon, aluminum, and phosphorus in said molecular sieve; and wherein said molecular sieve has a silica-to-alumina mole ratio of at least 10.
An air sensor system comprising: a pressure or airflow sensor; a filter housing that defines an air flow path towards the pressure or airflow sensor; and a filter in the air flow path, defined by the filter housing, wherein the filter comprises: a micro filter; and a hydrophobic membrane, wherein the hydrophobic membrane is downstream of the micro filter in the air flow path to the pressure or airflow sensor; a pressure or airflow sensor; a filter housing that defines an air flow path towards the pressure or airflow sensor; and a filter in the air flow path, defined by the filter housing, wherein the filter comprises: a micro filter; and a hydrophobic membrane, wherein the hydrophobic membrane is downstream of the micro filter in the air flow path to the pressure or airflow sensor; a micro filter; and a hydrophobic membrane, wherein the hydrophobic membrane is downstream of the micro filter in the air flow path to the pressure or airflow sensor;
A high strength steel plate comprising, by weight: 0.05 to 0.20% of C, 0.15 to 0.55% of Si, 0.9 to 1.75% of Mn, 0.001 to 0.05% of Al, 0.03% or less of P, 0.03% or less of S, 0.05 to 0.3% of Cr, 0.05 to 0.6% of Ni, 0.005 to 0.35% of Cu, 0.05 to 0.2% of Mo, 0.005 to 0.07% of V, 0.005 to 0.04% of Nb, 0.0005 to 0.005% of Ca, 0.005 to 0.025% of Ti, 0.002 to 0.006% of N, less than 0.0005% of B, and a balance of Fe, with inevitable impurities, satisfying relationships of Cu + Ni + Cr + Mo: 1.5% or less, Cr + Mo: 0.4% or less, V + Nb: 0.1% or less, and Ca/S: 1.0 or higher, and comprising a microstructure of 30 to 60 area% of tempered martensite and 40 to 70 area% of tempered bainite, wherein the sum of the tempered martensite and the tempered bainite is 100 area%, wherein a grain aspect ratio as defined herein of the microstructure is 1.1 to 2.5, wherein Charpy impact toughness of the steel plate is 300J or more at -60°C, and wherein the low-temperature impact toughness is evaluated as a Charpy impact energy value obtained by performing a Charpy impact test on a specimen having a V notch at -60°C, and wherein the tensile strength of the steel plate is 600 MPa or more.
A wall-fixing device of elongated bodies, in particular radiating coaxial cables, comprising a spacer and a cable clamp for supporting an elongated body in a suspended position on a wall (6,14), said spacer comprising two separated arms (15a,15b), the ends (17a,17b) of said two separated arms (15a,15b) configured to face said wall (6,14) are provided with a corresponding first base for fixing said device to said wall (6,14), said device has a substantially lattice-like structure and the opposite ends of said arms (15a,15b) has a second base for fixing said ends of said arms (15a,15b) to said cable clamp having a longitudinal axis directed according to the length of said elongated body supported by said cable clamp, said first base is provided with a seat, positioned on said first base between said two arms (15a,15b), for a corresponding screw for fixing said device to said wall (6,14), and said arms (15a,15b) are tilted with respect to the axis of said seat, said axis being positioned vertically separate and distant when the device is installed on a vertical wall, or being positioned laterally separate and distant when the device is installed on a horizontal wall, from the longitudinal axis of the cable clamp of the device, characterized in that said device is equipped with a safety fixing system of said elongated body consisting of a wire made of flexible metal material provided, at one end, with an openable collar which closes around the same body and, at the opposite end, with a fixing ring to said screw.
A method for transmitting MAC frames, the method comprising: receiving, by a first switch in a multichassis link aggregation (MLAG) domain, a first media access control frame from an external device, wherein the external device is directly connected to the first switch, wherein the MLAG domain consists of the first switch and a second switch; making a first determination that the external device is not a singly-connected external device; based on the first determination, encapsulating the first MAC frame in a first Virtual extensible Local Area Network (VXLAN) frame using a first virtual tunnel endpoint (VTEP), wherein the first VXLAN frame comprises a virtual VTEP Internet Protocol address, wherein the virtual VTEP IP address is associated with the MLAG domain; and transmitting the first VXLAN frame to an IP fabric, wherein the first switch is directly connected to the IP fabric. receiving, by a first switch in a multichassis link aggregation (MLAG) domain, a first media access control frame from an external device, wherein the external device is directly connected to the first switch, wherein the MLAG domain consists of the first switch and a second switch; making a first determination that the external device is not a singly-connected external device; based on the first determination, encapsulating the first MAC frame in a first Virtual extensible Local Area Network (VXLAN) frame using a first virtual tunnel endpoint (VTEP), wherein the first VXLAN frame comprises a virtual VTEP Internet Protocol address, wherein the virtual VTEP IP address is associated with the MLAG domain; and transmitting the first VXLAN frame to an IP fabric, wherein the first switch is directly connected to the IP fabric.
An electrically conductive module of a solar cell terminal box, comprising an insulation body, conducting strips and a diode chip, wherein there are two conducting strips; wherein the two conducting strips are electrically connected through the diode chip; wherein the diode chip is located inside the insulation body; wherein each of the two conducting strips is provided with a through hole which is of a strip-shaped structure, and two ends of each through hole are close to the edge of the corresponding conducting strip; wherein the two side edges, which are fixed with the conducting strips, of the insulation body overlap with the through holes; wherein a part of each through hole is located inside the insulation body, characterized in that there are only two said conducting strips, wherein a connection region between said insulation body and each of said conducting strips is only a region between the end part of the corresponding through hole and said edge of said conducting strip, wherein a remaining part of said through hole is located outside said insulation body, and forms an enclosed busbar soldering hole together with two side edges of said insulation body.
A nitric oxide delivery device, comprising: a housing that is permeable to nitric oxide; a working electrode inside of the housing, the working electrode being a copper-containing conductive material that produces a low concentration of Cu ions at a surface of the working electrode in response to an anodic voltage pulse applied thereto; a conductive lead electrically connected to the working electrode and extending outside of the housing; any of a reference electrode or a counter electrode within the housing and electrically isolated from the working electrode; a second conductive lead electrically connected to the any of the reference electrode or the counter electrode and extending outside of the housing; and a source of nitrite ions to be contained within the housing and in contact with the working electrode, the source of nitrite ions being selected from the group consisting of a water soluble, inorganic nitrite salt in an aqueous solution or a hydrogel and a lipophilic quaternary ammonium nitrite species in an organic polymeric phase; wherein nitrite in the source of nitrite ions is reduced by the Cu ions to generate nitric oxide. a housing that is permeable to nitric oxide; a working electrode inside of the housing, the working electrode being a copper-containing conductive material that produces a low concentration of Cu ions at a surface of the working electrode in response to an anodic voltage pulse applied thereto; a conductive lead electrically connected to the working electrode and extending outside of the housing; any of a reference electrode or a counter electrode within the housing and electrically isolated from the working electrode; a second conductive lead electrically connected to the any of the reference electrode or the counter electrode and extending outside of the housing; and a source of nitrite ions to be contained within the housing and in contact with the working electrode, the source of nitrite ions being selected from the group consisting of a water soluble, inorganic nitrite salt in an aqueous solution or a hydrogel and a lipophilic quaternary ammonium nitrite species in an organic polymeric phase; wherein nitrite in the source of nitrite ions is reduced by the Cu ions to generate nitric oxide.
Use of a non-acidified pharmaceutically-acceptable salt of nitrite in the preparation of a medicament for inducing vasodilation and/or increasing blood flow in a subject.
An injection molding machine comprising: a toggle mechanism which connects a movable platen and a rear platen, wherein the toggle mechanism includes a plurality of links (151, 152, 153, 154), a first connection portion which connects the movable platen and the link, a second connection portion which connects the links (152, 153) to each other, and a third connection portion which connects the rear platen and the link, at least one of the first to third connection portions includes a bush, a connection pin which is inserted into the bush, a supply channel (62, 63) through which a lubricant is supplied to a bearing gap which is a gap between the bush and the connection pin, a discharge channel (67, 68) through which the lubricant is discharged from the bearing gap, a seal member which seals the bearing gap, and a wear detection unit (81 to 88) which detects wear of sliding surfaces of the bush and the connection pin, and the wear detection unit (81 to 88) detects a position of at least one of the plurality links (151, 152, 153, 154), the movable platen, and/or the rear platen in a mold opening or closing direction when a mold is clamped. a toggle mechanism which connects a movable platen and a rear platen, wherein the toggle mechanism includes a plurality of links (151, 152, 153, 154), a first connection portion which connects the movable platen and the link, a second connection portion which connects the links (152, 153) to each other, and a third connection portion which connects the rear platen and the link, at least one of the first to third connection portions includes a bush, a connection pin which is inserted into the bush, a supply channel (62, 63) through which a lubricant is supplied to a bearing gap which is a gap between the bush and the connection pin, a discharge channel (67, 68) through which the lubricant is discharged from the bearing gap, a seal member which seals the bearing gap, and a wear detection unit (81 to 88) which detects wear of sliding surfaces of the bush and the connection pin, and the wear detection unit (81 to 88) detects a position of at least one of the plurality links (151, 152, 153, 154), the movable platen, and/or the rear platen in a mold opening or closing direction when a mold is clamped.