mhurhangee/ep-ind-claims huggingface dataset:
An inverted motion base, comprising: left and right vertical supports, spaced apart from each other; at least one rear vertical support; a carriage to travel vertically along a length of the rear vertical support and to resist lateral forces; a first cable connected at a first end to the carriage, the first cable having a second end wound about a first rotatable drum, wherein the first cable in combination with the first rotatable drum raises and lowers the carriage; a knuckle protruding from the carriage; a transverse support member pivotably coupled to the knuckle; left and right load carrying arms, each connected at a first end to a respective left and right ends of the transverse support member; a second cable connected at a first end to a second end of the right load carrying arm, the second cable having a second end wound about a second rotatable drum, wherein the second cable in combination with the second rotatable drum raises and lowers the second end of the right load carrying arm; a third cable connected at a first end to a second end of the left load carrying arm, the third cable having a second end wound about a third rotatable drum, wherein the third cable in combination with the third rotatable drum raises and lowers the second end of the left load carrying arm; and at least two rows of seats (130, 131), each row of seats positioned between and suspended from the right and left load carrying arms, each row of seats (130, 131) being parallel to the other row of seats. left and right vertical supports, spaced apart from each other; at least one rear vertical support; a carriage to travel vertically along a length of the rear vertical support and to resist lateral forces; a first cable connected at a first end to the carriage, the first cable having a second end wound about a first rotatable drum, wherein the first cable in combination with the first rotatable drum raises and lowers the carriage; a knuckle protruding from the carriage; a transverse support member pivotably coupled to the knuckle; left and right load carrying arms, each connected at a first end to a respective left and right ends of the transverse support member; a second cable connected at a first end to a second end of the right load carrying arm, the second cable having a second end wound about a second rotatable drum, wherein the second cable in combination with the second rotatable drum raises and lowers the second end of the right load carrying arm; a third cable connected at a first end to a second end of the left load carrying arm, the third cable having a second end wound about a third rotatable drum, wherein the third cable in combination with the third rotatable drum raises and lowers the second end of the left load carrying arm; and at least two rows of seats (130, 131), each row of seats positioned between and suspended from the right and left load carrying arms, each row of seats (130, 131) being parallel to the other row of seats.
A resistive heating element comprising: a. a substrate comprising an electrically conductive material and at least one carbonaceous additive, wherein the substrate or a part thereof is carbonized; and b. an aerosol precursor material combined with the carbonized substrate; wherein the resistive heating element has an electrical resistance of about 15 ohms or less. a. a substrate comprising an electrically conductive material and at least one carbonaceous additive, wherein the substrate or a part thereof is carbonized; and b. an aerosol precursor material combined with the carbonized substrate;
A method for preparing a fuel cell system in a vehicle for starting, for which purpose, after the vehicle has been shut down, a starting preparation routine is carried out depending on a temperature limit value (T G), characterized in that in the event that the fuel cell did not reach its normal operating temperature (T 0) during the previous operation and a temperature falls below the predetermined temperature limit value (T G), the fuel cell system is operated until it has reached its normal operating temperature (To) and thereafter the starting preparation routine is subsequently carried out.
Use of a matrix gel comprising chondrocytes for the manufacture of a cartilage repair implant, wherein said chondrocytes are not de-differentiated and have been isolated from a cartilage sample, and wherein upon isolation said chondrocytes are concentrated and mixed with a matrix gel material to obtain the said matrix gel comprising chondrocytes as a (preferably homogeneous) dilution of said isolate in a chondrocyte density of less than 5 x 10 6 /ml, and wherein said chondrocytes in said matrix gel exhibit increased production of extracellular matrix material, and wherein said cartilage sample comprises articular cartilage.
A filter structure comprising a fine fiber layer formed on and adhered to a filter substrate, wherein the fibers of the fine fiber layer have a diameter of 0.05 x 10 -6 to 0.5 x 10 -6 m and wherein the fibers of the fine fiber layer comprise a nylon polymer selected from nylon 6, nylon 66, nylon 610 and copolymers thereof, wherein the nylon polymer is crosslinked with a crosslinking agent that is reactive with the nitrogen atom in the amide linkage.
A lighting module having a back side, a front side, a lit edge and one or more unlit edges (110, 112, 114), the lighting module comprising: a substrate having a populated portion extending along the lit edge and an elongated portion extending from the populated portion along one of the at least one unlit edges and terminating at or near another of the unlit edges (112, 114); a power unit disposed on the substrate; a light engine coupled to the power unit, the light engine comprising a plurality of light emitting diodes disposed on the populated portion and extending along the lit edge of the substrate; a waveguide disposed over the light engine, the waveguide directing light from the light engine to form an illuminated surface area extending to the terminal end of the elongated portion, and an interface (132, 134) disposed on the substrate, wherein the interface comprises a first interface comprising a port disposed on the populated portion and a second interface comprising a connector disposed on a terminating end of the elongated portion, so that the interface can couple the substrate to one or more adjacent ones of said lighting modules. a substrate having a populated portion extending along the lit edge and an elongated portion extending from the populated portion along one of the at least one unlit edges and terminating at or near another of the unlit edges (112, 114); a power unit disposed on the substrate; a light engine coupled to the power unit, the light engine comprising a plurality of light emitting diodes disposed on the populated portion and extending along the lit edge of the substrate; a waveguide disposed over the light engine, the waveguide directing light from the light engine to form an illuminated surface area extending to the terminal end of the elongated portion, and an interface (132, 134) disposed on the substrate, wherein the interface comprises a first interface comprising a port disposed on the populated portion and a second interface comprising a connector disposed on a terminating end of the elongated portion, so that the interface can couple the substrate to one or more adjacent ones of said lighting modules.
A buttonholing sewing machine having: a needle vertical movement mechanism which moves a needle bar vertically while swinging it; a looper mechanism provided with a looper, a spreader, and a looper base which supports the looper and the spreader; a turning mechanism which turns the needle bar and the looper base; a feed mechanism which moves a sewing object across a placement surface that is mounted with the sewing object; a knife mechanism which forms a buttonhole in the sewing object; a press mechanism which can operate so as to widen the buttonhole of the sewing object while pressing the sewing object; and a control device which executes a buttonholing sewing control for formation of a buttonholing seam around the buttonhole by controlling individual units of the buttonholing sewing machine, characterized in that when the buttonholing sewing control is executed by the control device, the control device is designed for controlling the looper mechanism, the turning mechanism and the feed mechanism to form a double buttonholing seam around a buttonhole and the knife mechanism to form the buttonhole before formation of a second buttonholing seam; and the control device is designed for controlling the press mechanism for making an opening width of the buttonhole larger in forming the second buttonholing seam than in forming a first buttonholing seam when an opening width varying control is executed by the control device. a needle vertical movement mechanism which moves a needle bar vertically while swinging it; a looper mechanism provided with a looper, a spreader, and a looper base which supports the looper and the spreader; a turning mechanism which turns the needle bar and the looper base; a feed mechanism which moves a sewing object across a placement surface that is mounted with the sewing object; a knife mechanism which forms a buttonhole in the sewing object; a press mechanism which can operate so as to widen the buttonhole of the sewing object while pressing the sewing object; and a control device which executes a buttonholing sewing control for formation of a buttonholing seam around the buttonhole by controlling individual units of the buttonholing sewing machine, characterized in that when the buttonholing sewing control is executed by the control device, the control device is designed for controlling the looper mechanism, the turning mechanism and the feed mechanism to form a double buttonholing seam around a buttonhole and the knife mechanism to form the buttonhole before formation of a second buttonholing seam; and the control device is designed for controlling the press mechanism for making an opening width of the buttonhole larger in forming the second buttonholing seam than in forming a first buttonholing seam when an opening width varying control is executed by the control device.
An exhaust treatment arrangement comprising: a housing arrangement extending along a length from a first end to a second end, the housing arrangement defining a first treatment region, a mixing region, and a second treatment region between the first and second ends of the housing, the mixing region being disposed between the first and second treatment regions (112, 116), the mixing region having an axial length that is less than 150% of an axial length of the second treatment region; a first substrate (783, 883) disposed within the housing arrangement at the first treatment region; a second substrate (786, 886) disposed within the housing arrangement at the second treatment region; a mixing assembly (740, 840) disposed at the mixing region, the mixing assembly (740, 840) including a mixing arrangement (744, 844), a restricting member (745, 845), and a dispersing member (746, 846), a first mixing region is defined between the mixing arrangement (744, 844) and an entrance to a restricted passage (747, 847), the mixing arrangement (744, 844) being configured to cause swirling of exhaust flow passing through the first mixing region (Ml), and the dispersing member (746, 846) defining a plurality of apertures; and an injection mounting location (730, 830) disposed at the mixing arrangement (744, 844) upstream of the restricting member (745, 845), characterized in that the restricting member (745, 845) includes a duct that defines the restricted passage (747, 847). a housing arrangement extending along a length from a first end to a second end, the housing arrangement defining a first treatment region, a mixing region, and a second treatment region between the first and second ends of the housing, the mixing region being disposed between the first and second treatment regions (112, 116), the mixing region having an axial length that is less than 150% of an axial length of the second treatment region; a first substrate (783, 883) disposed within the housing arrangement at the first treatment region; a second substrate (786, 886) disposed within the housing arrangement at the second treatment region; a mixing assembly (740, 840) disposed at the mixing region, the mixing assembly (740, 840) including a mixing arrangement (744, 844), a restricting member (745, 845), and a dispersing member (746, 846), a first mixing region is defined between the mixing arrangement (744, 844) and an entrance to a restricted passage (747, 847), the mixing arrangement (744, 844) being configured to cause swirling of exhaust flow passing through the first mixing region (Ml), and the dispersing member (746, 846) defining a plurality of apertures; and an injection mounting location (730, 830) disposed at the mixing arrangement (744, 844) upstream of the restricting member (745, 845), characterized in that the restricting member (745, 845) includes a duct that defines the restricted passage (747, 847).
A wind power installation comprising a pylon which has a plurality of pylon segments, wherein at least one pylon segment of the plurality of the pylon segments is made up from a plurality of pylon segment parts, wherein the pylon segment parts can be fixed together by way of screw connections, wherein the pylon segment parts have abutting surfaces which extend in a longitudinal direction of the pylon, a plurality of guide cables extending at least partially along the length of the pylon and inside the pylon, and at least one travel cable extending along the length of the pylon and inside the pylon, a working platform which is fixed to one of the plurality of guide cables and the travel cable and which can be moved upwardly and downwardly by way of a travel cable, wherein the at least one guide cable extends in the region of the screw connections of the pylon segment parts so that the working platform can be moved adjacent to the screw connections, wherein the guide cable is coupled at one of its ends to the pylon.
A nonaqueous electrolyte secondary battery comprising: a positive electrode; a negative electrode; and a nonaqueous electrolytic solution, wherein the positive electrode includes a positive electrode active material layer, the positive electrode active material layer includes, as a positive electrode active material, a lithium transition metal composite oxide including at least lithium, nickel, manganese, and cobalt, the nonaqueous electrolytic solution includes lithium fluorosulfonate, a dibutyl phthalate absorption amount of the positive electrode active material (measured according to the method described in JIS K 6217-4) is 28 mL/100 g or more and 45 mL/100 g or less, and a content of lithium fluorosulfonate in the nonaqueous electrolytic solution is 0.15% by mass or more and 1.0% by mass or less. a positive electrode; a negative electrode; and a nonaqueous electrolytic solution, wherein the positive electrode includes a positive electrode active material layer, the positive electrode active material layer includes, as a positive electrode active material, a lithium transition metal composite oxide including at least lithium, nickel, manganese, and cobalt, the nonaqueous electrolytic solution includes lithium fluorosulfonate, a dibutyl phthalate absorption amount of the positive electrode active material (measured according to the method described in JIS K 6217-4) is 28 mL/100 g or more and 45 mL/100 g or less, and a content of lithium fluorosulfonate in the nonaqueous electrolytic solution is 0.15% by mass or more and 1.0% by mass or less.
A receiver device comprising: a controller comprising an error detection module and configured to detect that a packet received at the receiver device from a transmitter is corrupted, and send a positive acknowledgment for the packet to the transmitter in response to at least the error detection module detecting that the packet is corrupted, wherein the controller is further configured to determine whether to send the positive acknowledgment for the packet to the transmitter in response to at least the error detection module detecting that the packet is corrupted, and send the positive acknowledgement to the transmitter in response to at least the error detection module detecting that the packet is corrupted, characterised in that the controller is further configured to determine an estimated time period between bursts of the channel interference, and determine whether to send the positive acknowledgment based on at least the estimated time period between bursts of the channel interference. a controller comprising an error detection module and configured to detect that a packet received at the receiver device from a transmitter is corrupted, and send a positive acknowledgment for the packet to the transmitter in response to at least the error detection module detecting that the packet is corrupted, wherein the controller is further configured to determine whether to send the positive acknowledgment for the packet to the transmitter in response to at least the error detection module detecting that the packet is corrupted, and send the positive acknowledgement to the transmitter in response to at least the error detection module detecting that the packet is corrupted, characterised in that the controller is further configured to determine an estimated time period between bursts of the channel interference, and determine whether to send the positive acknowledgment based on at least the estimated time period between bursts of the channel interference.
A drive unit for a fuel injection device which applies a first voltage between both ends of the electromagnetic valve via the turning on of a first switching element, and applies a second voltage between both ends of the electromagnetic valve via the turning on of a second switching element with the second voltage lower than the first voltage, and thus drives an electromagnetic valve such that the electromagnetic valve is opened and closed, characterized in that when, after the first switching element is turned on, and energization current of the electromagnetic valve increases to a first current value, the first switching element is turned off, the second switching element is turned on for a predetermined period, the electromagnetic valve is energized with current lower than the first current value for a predetermined period, the second switching element is not turned off during the predetermined period, and the electromagnetic valve is detected to have reached a target amount of control lift based on the energization current of the electromagnetic valve; wherein the electromagnetic valve is controlled in such a way that the timing to reach the target amount of control lift is present within the predetermined period, and wherein pulses turning on the second switching element are output to both ends of the electromagnetic valve more than two times, at least one pulse of the pulses is a detection pulse with a pulse width longer than those of the other pulses, and the electromagnetic valve is detected to have reached the target amount of control lift while the detection pulse is output.
A liquid blow molding method of molding a synthetic resin preform having a mouth portion into a liquid container of a predetermined shape, the method comprising: an air-liquid replacement step of supplying a liquid into the preform from the mouth portion through a blow nozzle and discharging the air inside the preform to an outside; an air-liquid separation step of separating the air from the liquid inside the preform by vibrating the preform; and a blow molding step of molding the preform into a container of a predetermined shape by supplying, after the air-liquid separation step, a pressurized liquid into the preform from the mouth portion through the blow nozzle, characterized by that in the air-liquid separation step, the preform is vibrated by applying ultrasonic waves to the preform or a mold in which the preform is placed. an air-liquid replacement step of supplying a liquid into the preform from the mouth portion through a blow nozzle and discharging the air inside the preform to an outside; an air-liquid separation step of separating the air from the liquid inside the preform by vibrating the preform; and a blow molding step of molding the preform into a container of a predetermined shape by supplying, after the air-liquid separation step, a pressurized liquid into the preform from the mouth portion through the blow nozzle,
A gas turbine engine, comprising: a geared architecture including a sun gear rotatable about a central axis, a rotationally fixed ring gear, and a multiple of intermediate gears in meshing engagement with the sun gear and ring gear; and a baffle with an oil scavenge scoop adjacent to each of the multiple of intermediate gears, wherein the oil scavenge scoop includes a scavenge passage with an inner scavenge passage wall, an outer scavenge passage wall and a radial outer scavenge passage wall therebetween; characterised in that: the outer scavenge passage wall includes an apex extension that extends at least partially into a groove in the sun gear. a geared architecture including a sun gear rotatable about a central axis, a rotationally fixed ring gear, and a multiple of intermediate gears in meshing engagement with the sun gear and ring gear; and a baffle with an oil scavenge scoop adjacent to each of the multiple of intermediate gears, wherein the oil scavenge scoop includes a scavenge passage with an inner scavenge passage wall, an outer scavenge passage wall and a radial outer scavenge passage wall therebetween; characterised in that: the outer scavenge passage wall includes an apex extension that extends at least partially into a groove in the sun gear. the outer scavenge passage wall includes an apex extension that extends at least partially into a groove in the sun gear.
A power converter comprising: a capacitor module; and a power module having a power semiconductor device for converting DC current supplied from a battery to AC current, arranged in a housing, the capacitor module comprises: a case; a plurality of capacitor cells in which first and second electrodes are formed on opposite end faces, and said capacitor cells are arranged in the case; a first wide conductor which is connected with said first electrode; a second wide conductor which is connected with said second electrode; characterized in that the first and second wide conductors (8, 9) having at least one bent part are extended from the case so that the both wide conductors (8, 9) having at least one portion joined in a laminated form with an insulate sheet are electrically connected with the power module. a capacitor module; and a power module having a power semiconductor device for converting DC current supplied from a battery to AC current, arranged in a housing, the capacitor module comprises: a case; a plurality of capacitor cells in which first and second electrodes are formed on opposite end faces, and said capacitor cells are arranged in the case; a first wide conductor which is connected with said first electrode; a second wide conductor which is connected with said second electrode; characterized in that the first and second wide conductors (8, 9) having at least one bent part are extended from the case so that the both wide conductors (8, 9) having at least one portion joined in a laminated form with an insulate sheet are electrically connected with the power module. a case; a plurality of capacitor cells in which first and second electrodes are formed on opposite end faces, and said capacitor cells are arranged in the case; a first wide conductor which is connected with said first electrode; a second wide conductor which is connected with said second electrode; characterized in that the first and second wide conductors (8, 9) having at least one bent part are extended from the case so that the both wide conductors (8, 9) having at least one portion joined in a laminated form with an insulate sheet are electrically connected with the power module.